OceanSphere
Engines

Plate Heat Exchanger

medium 1149 / 1149 models (Inspector)

A plate heat exchanger stacks thin corrugated plates to pack far more heat transfer area into a given footprint than a shell-and-tube unit of the same duty, at the cost of being far more sensitive to gasket condition and fouling between the narrow plate gaps.

Read more — Plate Heat Exchanger explained ▾

What sets a plate heat exchanger apart

A plate heat exchanger builds its heat transfer surface from a stack of thin, corrugated metal plates clamped together (gasketed type) or permanently bonded (brazed or fully welded type), with hot and cold fluid running in alternating narrow channels between them. Compared with a shell-and-tube exchanger of the same duty, the plate design packs several times more surface area into the same volume because the corrugation pattern creates turbulence at low flow velocity, which improves heat transfer without needing long tube runs. The trade-off is channel width: gaps between plates are typically only a few millimetres, so the design is far less tolerant of solids, scale or fibrous debris than a tube bundle, and a gasketed unit depends entirely on gasket condition to stay leak-tight between the plate pack and between the fluid circuits.

Plate heat exchanger, plate pack arrangement
Cutaway of a gasketed plate heat exchanger showing the fixed frame plate with its four ports, the stack of corrugated plates held together by tie bolts against the movable pressure plate, a gasket between plates, and the counter-flow hot and cold connections.

Main components

Plate pack

Pressed stainless steel or titanium plates with a herringbone or chevron corrugation pattern that sets the flow path and turbulence level; plate thickness and corrugation depth are chosen for the pressure and duty.

Gaskets (gasketed type)

Elastomer gaskets, glued or clip-fitted into a groove around each plate, seal the fluid channels and route flow between ports. Gasket material (NBR, EPDM, Viton) is selected for the fluid and temperature; the wrong gasket compound in a fuel or lube oil circuit degrades quickly.

Frame, carrying bar and tightening bolts

The frame clamps the plate pack to a specified compressed thickness; under-tightening lets gaskets leak, over-tightening deforms plates and shortens gasket life.

Brazed or welded pack (compact type)

Copper-brazed or fully welded plate packs eliminate gaskets entirely, giving a smaller, higher-pressure-rated unit that cannot be opened for mechanical cleaning, only backflushed or chemically cleaned.

Selection and sizing

  • Duty and approach temperature - the closer the required approach temperature between the two fluids, the more plates or the larger the area needed.
  • Pressure rating - gasketed units typically handle up to around 25 bar; brazed and welded types reach substantially higher.
  • Fouling tendency of the fluid - seawater cooling duty favours a gasketed, openable design for periodic mechanical cleaning; clean closed-loop duty suits brazed units.
  • Materials - titanium plates for raw seawater service resist chloride pitting far better than stainless steel.
  • Connection size and plate count - determines physical footprint against available engine room space.

Regulations and class

Plate heat exchangers used in essential services (main engine cooling, fuel heating for combustion) fall under the class society's pressure vessel and piping rules for design pressure, material certification and pressure testing before delivery. Where the exchanger separates a fuel or lube system from a cooling water system, class rules typically require the design to prevent internal cross-contamination or to allow leak detection between circuits, since a failed plate or gasket can let fuel into cooling water or vice versa. There is no IMO convention specific to the plate exchanger type itself; requirements come through the classification society's machinery rules for the system the exchanger is part of.

Typical faults

FaultConsequence
Gasket hardening or shrinkage with ageinter-plate leakage, cross-contamination between fluid circuits
Fouling/scaling in narrow channelsrising pressure drop and falling heat transfer, often mistaken for pump wear
Plate corrosion pitting (wrong material for seawater)through-wall leaks, seawater ingress into the clean circuit
Incorrect re-assembly after opening for cleaningplates out of sequence change the flow path and duty is lost even though the unit looks intact

What to look for in a supplier

  • Material certificates for plates matching the actual fluid, especially titanium confirmation for seawater duty.
  • Gasket compound datasheet matching the fluid and maximum operating temperature, not a generic default.
  • Availability of individual replacement plates and gaskets for the exact plate pattern, since plate packs are not interchangeable between makers.

Before reassembling a gasketed plate exchanger after cleaning, check the plates go back in the original sequence and orientation - a swapped plate changes the flow pattern and the unit can look assembled correctly while badly underperforming.

Inspector Mode Show All 1149 / 1149 with inspector value

38 manufacturers · 1149 models

Alfa Laval

737
M10-MFG
50-500 kW · FW/SW/LO · Gasketed Plate Heat Exchanger
Medium
FW/SW/LO
Type
Gasketed PHE
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Service: Gasket replacement every 5-8 years. Torque frame bolts annually. CIP cleaning with acid/alkali. Inspect plates for corrosion at gasket change.
Spare Parts: Alfa Laval: Dichtungssatz an Bord vorhalten. Platten-Reinigungschemikalien bevorraten. Lead time: 2-6 Wochen.
Strengths
  • Very high heat‑transfer surface area per unit volume – saves valuable space on board.
  • Modular plate stack allows easy capacity changes and quick gasket replacement (5–8 yr interval).
  • Wide temperature range (0‑180 °C standard, –50 to 150 °C for FSRU) and pressure rating >10 bar suitable for most marine cooling/heating loops.
  • Compatible with fresh water, seawater and low‑oil fluids; multiple plate patterns (Chevron, Gemini, FlexFlow™) optimise performance.
Weaknesses
  • Gasket wear limits service life compared with welded shell‑and‑tube exchangers; requires regular inspection and torque checks.
  • Maximum design pressure (~10 bar) may be insufficient for high‑pressure steam or high‑energy LNG regasification loops.
  • Fouling on plate surfaces can increase pressure drop; periodic CIP cleaning is mandatory.
  • Corrosion of plates in aggressive seawater environments demands careful material selection and monitoring.
Typical Vessels: Tankers (LNG, chemical)Container shipsBulk carriersCruise linersOffshore support vesselsFSRU units
Certifications: DNV GL Approval
Decision Guide: Choose the M10-MFG when you need a compact, high‑efficiency heat exchanger for freshwater/seawater loops with moderate pressure (≤10 bar) and value easy on‑site maintenance. Avoid it in applications requiring very high pressures, aggressive chemicals that exceed gasket compatibility, or where fouling is extreme and shell‑and‑tube designs are preferred.
Use Cases: Typical deployments include main engine cooling water heat recovery, fuel oil heating, ballast water temperature control, HVAC chillers/heaters, and LNG regasification heating on FSRU platforms where space and weight savings are critical.
Manufacturer Datasheet
Datasheet
Alfa Laval T5-MFG
T5-MFG
20-200 kW · FW/LO · Gasketed plate heat exchanger
Medium
FW/LO
Type
Gasketed PHE Compact
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Service: Compact variant for tight engine rooms. Same maintenance as M10-MFG. Monitor approach temperature.
Spare Parts: Alfa Laval: Dichtungssatz an Bord vorhalten. Platten-Reinigungschemikalien bevorraten. Lead time: 2-6 Wochen.
Strengths
  • Compact footprint ideal for tight engine‑room spaces
  • High heat‑transfer efficiency with interchangeable Chevron, Gemini or FlexFlow™ plates
  • Design pressure >10 bar suitable for most marine cooling/heating loops
  • Modular construction allows easy scaling and maintenance similar to the M10‑MFG series
  • Wide operating temperature range (0‑180 °C) covering both heating and cooling duties
Weaknesses
  • Gasketed design requires regular inspection, tightening and eventual gasket replacement
  • Not suited for very high‑pressure applications (>20 bar) or extreme temperatures beyond the rated range
  • Susceptible to fouling and scaling if seawater is not adequately pretreated
  • Maximum capacity limited by plate count; larger heat loads may need multiple units
  • Potential for plate corrosion or cracking when incompatible process fluids are used
Typical Vessels: Product TankerContainer ShipCruise VesselOffshore Support VesselFSRU (Floating Storage Regasification Unit)General Cargo Ship
Decision Guide: Choose the T5-MFG when a compact, high‑efficiency heat exchanger is needed for moderate‑pressure fresh‑water/lubricating‑oil loops in vessels with limited engine‑room space. Avoid it if the system requires ultra‑high pressure (>20 bar), handles highly fouling fluids without adequate pretreatment, or demands welded plate construction for extended service intervals.
Use Cases: Typical deployments include seawater‑to‑fuel‑oil heat recovery, lubricating‑oil cooling, fresh‑water heating for hot‑water systems, and pre‑heating of process water on FSRU units. The unit is often installed in the main engine room or auxiliary plant where space constraints demand a small footprint while still delivering reliable thermal performance.
Manufacturer Datasheet
Datasheet
Alfa Laval M3-FG
0.5 m² surface
Exchanger type
plate
Surface area m2
0.5
Max. Pressure (bar)
25
Application
hydraulic oil/FW cooling
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval Alfa Laval M6-FG
Alfa Laval M6-FG
2.0 m² surface
Exchanger type
plate
Surface area m2
2.0
Max. Pressure (bar)
25
Application
LO/FW cooling
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval M10-BFG
8.0 m² surface
Exchanger type
plate
Surface area m2
8.0
Max. Pressure (bar)
25
Application
central cooler
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval M15-BFG
20.0 m² surface
Exchanger type
plate
Surface area m2
20.0
Max. Pressure (bar)
25
Application
central cooler
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval M20-MFG
50.0 m² surface
Exchanger type
plate
Surface area m2
50.0
Max. Pressure (bar)
25
Application
central cooler
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval Alfa Laval T20-BFG
Alfa Laval T20-BFG
30.0 m² surface
Exchanger type
plate
Surface area m2
30.0
Max. Pressure (bar)
25
Application
central/LO cooler
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval Alfa Laval T50-MFG
Alfa Laval T50-MFG
100.0 m² surface
Exchanger type
plate
Surface area m2
100.0
Max. Pressure (bar)
25
Application
main central cooler
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval Alfa Laval TL10-BFG
Alfa Laval TL10-BFG
12.0 m² surface
Exchanger type
plate
Surface area m2
12.0
Max. Pressure (bar)
25
Application
FW generator
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval Alfa Laval M3 Series
Alfa Laval M3 Series
Model Family
M3
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval Alfa Laval M3 50kW LO cooling
Alfa Laval M3 50kW LO cooling
Model Family
M3
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Capacity (kW)
50
Application
LO cooling
Material
stainless_steel_316
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval Alfa Laval M3 50kW FW cooling
Alfa Laval M3 50kW FW cooling
Model Family
M3
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Capacity (kW)
50
Application
FW cooling
Material
stainless_steel_316
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval M3 100kW LO cooling
Model Family
M3
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Capacity (kW)
100
Application
LO cooling
Material
stainless_steel_316
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval Alfa Laval M3 100kW FW cooling
Alfa Laval M3 100kW FW cooling
Model Family
M3
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Capacity (kW)
100
Application
FW cooling
Material
stainless_steel_316
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval M3 200kW LO cooling
Model Family
M3
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Capacity (kW)
200
Application
LO cooling
Material
stainless_steel_316
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval Alfa Laval M3 200kW FW cooling
Alfa Laval M3 200kW FW cooling
Model Family
M3
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Capacity (kW)
200
Application
FW cooling
Material
stainless_steel_316
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval Alfa Laval M6 Series
Alfa Laval M6 Series
Model Family
M6
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval Alfa Laval M6 100kW LO cooling
Alfa Laval M6 100kW LO cooling
Model Family
M6
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Capacity (kW)
100
Application
LO cooling
Material
stainless_steel_316
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval Alfa Laval M6 100kW FW cooling
Alfa Laval M6 100kW FW cooling
Model Family
M6
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Capacity (kW)
100
Application
FW cooling
Material
stainless_steel_316
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval Alfa Laval M6 100kW Central cooling
Alfa Laval M6 100kW Central cooling
Model Family
M6
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Capacity (kW)
100
Application
Central cooling
Material
titanium
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval Alfa Laval M6 200kW LO cooling
Alfa Laval M6 200kW LO cooling
Model Family
M6
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Capacity (kW)
200
Application
LO cooling
Material
stainless_steel_316
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval Alfa Laval M6 200kW FW cooling
Alfa Laval M6 200kW FW cooling
Model Family
M6
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Capacity (kW)
200
Application
FW cooling
Material
stainless_steel_316
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval Alfa Laval M6 200kW Central cooling
Alfa Laval M6 200kW Central cooling
Model Family
M6
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Capacity (kW)
200
Application
Central cooling
Material
titanium
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval Alfa Laval M6 500kW LO cooling
Alfa Laval M6 500kW LO cooling
Model Family
M6
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Capacity (kW)
500
Application
LO cooling
Material
stainless_steel_316
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval Alfa Laval M6 500kW FW cooling
Alfa Laval M6 500kW FW cooling
Model Family
M6
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Capacity (kW)
500
Application
FW cooling
Material
stainless_steel_316
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval Alfa Laval M6 500kW Central cooling
Alfa Laval M6 500kW Central cooling
Model Family
M6
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Capacity (kW)
500
Application
Central cooling
Material
titanium
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval M10 Series
Model Family
M10
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval Alfa Laval M10 200kW LO cooling
Alfa Laval M10 200kW LO cooling
Model Family
M10
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Capacity (kW)
200
Application
LO cooling
Material
stainless_steel_316
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval Alfa Laval M10 200kW FW cooling
Alfa Laval M10 200kW FW cooling
Model Family
M10
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Capacity (kW)
200
Application
FW cooling
Material
stainless_steel_316
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval Alfa Laval M10 200kW Central cooling
Alfa Laval M10 200kW Central cooling
Model Family
M10
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Capacity (kW)
200
Application
Central cooling
Material
titanium
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval Alfa Laval M10 200kW Fuel heating
Alfa Laval M10 200kW Fuel heating
Model Family
M10
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Capacity (kW)
200
Application
Fuel heating
Material
stainless_steel_316
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval Alfa Laval M10 500kW LO cooling
Alfa Laval M10 500kW LO cooling
Model Family
M10
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Capacity (kW)
500
Application
LO cooling
Material
stainless_steel_316
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval Alfa Laval M10 500kW FW cooling
Alfa Laval M10 500kW FW cooling
Model Family
M10
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Capacity (kW)
500
Application
FW cooling
Material
stainless_steel_316
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval Alfa Laval M10 500kW Central cooling
Alfa Laval M10 500kW Central cooling
Model Family
M10
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Capacity (kW)
500
Application
Central cooling
Material
titanium
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval Alfa Laval M10 500kW Fuel heating
Alfa Laval M10 500kW Fuel heating
Model Family
M10
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Capacity (kW)
500
Application
Fuel heating
Material
stainless_steel_316
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval Alfa Laval M10 1000kW LO cooling
Alfa Laval M10 1000kW LO cooling
Model Family
M10
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Capacity (kW)
1000
Application
LO cooling
Material
stainless_steel_316
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval Alfa Laval M10 1000kW FW cooling
Alfa Laval M10 1000kW FW cooling
Model Family
M10
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Capacity (kW)
1000
Application
FW cooling
Material
stainless_steel_316
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval Alfa Laval M10 1000kW Central cooling
Alfa Laval M10 1000kW Central cooling
Model Family
M10
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Capacity (kW)
1000
Application
Central cooling
Material
titanium
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval Alfa Laval M10 1000kW Fuel heating
Alfa Laval M10 1000kW Fuel heating
Model Family
M10
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Capacity (kW)
1000
Application
Fuel heating
Material
stainless_steel_316
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval Alfa Laval M15 Series
Alfa Laval M15 Series
Model Family
M15
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval M15 500kW Central cooling
Model Family
M15
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Capacity (kW)
500
Application
Central cooling
Material
titanium
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval M15 500kW LO cooling
Model Family
M15
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Capacity (kW)
500
Application
LO cooling
Material
stainless_steel_316
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval M15 500kW FW cooling
Model Family
M15
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Capacity (kW)
500
Application
FW cooling
Material
stainless_steel_316
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval M15 1000kW Central cooling
Model Family
M15
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Capacity (kW)
1000
Application
Central cooling
Material
titanium
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval M15 1000kW LO cooling
Model Family
M15
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Capacity (kW)
1000
Application
LO cooling
Material
stainless_steel_316
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval M15 1000kW FW cooling
Model Family
M15
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Capacity (kW)
1000
Application
FW cooling
Material
stainless_steel_316
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval M15 2000kW Central cooling
Model Family
M15
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Capacity (kW)
2000
Application
Central cooling
Material
titanium
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval M15 2000kW LO cooling
Model Family
M15
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Capacity (kW)
2000
Application
LO cooling
Material
stainless_steel_316
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval M15 2000kW FW cooling
Model Family
M15
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Capacity (kW)
2000
Application
FW cooling
Material
stainless_steel_316
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval Alfa Laval M20 Series
Alfa Laval M20 Series
Model Family
M20
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval Alfa Laval M20 1000kW Central cooling
Alfa Laval M20 1000kW Central cooling
Model Family
M20
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Capacity (kW)
1000
Application
Central cooling
Material
titanium
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval Alfa Laval M20 1000kW Jacket water cooling
Alfa Laval M20 1000kW Jacket water cooling
Model Family
M20
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Capacity (kW)
1000
Application
Jacket water cooling
Material
stainless_steel_316
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval Alfa Laval M20 2000kW Central cooling
Alfa Laval M20 2000kW Central cooling
Model Family
M20
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Capacity (kW)
2000
Application
Central cooling
Material
titanium
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval Alfa Laval M20 2000kW Jacket water cooling
Alfa Laval M20 2000kW Jacket water cooling
Model Family
M20
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Capacity (kW)
2000
Application
Jacket water cooling
Material
stainless_steel_316
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval Alfa Laval M20 3000kW Central cooling
Alfa Laval M20 3000kW Central cooling
Model Family
M20
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Capacity (kW)
3000
Application
Central cooling
Material
titanium
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval Alfa Laval M20 3000kW Jacket water cooling
Alfa Laval M20 3000kW Jacket water cooling
Model Family
M20
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Capacity (kW)
3000
Application
Jacket water cooling
Material
stainless_steel_316
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval Alfa Laval T5 Series
Alfa Laval T5 Series
Model Family
T5
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval Alfa Laval T5 100kW FW generation
Alfa Laval T5 100kW FW generation
Model Family
T5
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Capacity (kW)
100
Application
FW generation
Material
stainless_steel_316
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval Alfa Laval T5 100kW LO cooling
Alfa Laval T5 100kW LO cooling
Model Family
T5
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Capacity (kW)
100
Application
LO cooling
Material
stainless_steel_316
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval Alfa Laval T5 200kW FW generation
Alfa Laval T5 200kW FW generation
Model Family
T5
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Capacity (kW)
200
Application
FW generation
Material
stainless_steel_316
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval Alfa Laval T5 200kW LO cooling
Alfa Laval T5 200kW LO cooling
Model Family
T5
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Capacity (kW)
200
Application
LO cooling
Material
stainless_steel_316
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval Alfa Laval T5 500kW FW generation
Alfa Laval T5 500kW FW generation
Model Family
T5
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Capacity (kW)
500
Application
FW generation
Material
stainless_steel_316
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval Alfa Laval T5 500kW LO cooling
Alfa Laval T5 500kW LO cooling
Model Family
T5
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Capacity (kW)
500
Application
LO cooling
Material
stainless_steel_316
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval Alfa Laval T5 1000kW FW generation
Alfa Laval T5 1000kW FW generation
Model Family
T5
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Capacity (kW)
1000
Application
FW generation
Material
stainless_steel_316
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval Alfa Laval T5 1000kW LO cooling
Alfa Laval T5 1000kW LO cooling
Model Family
T5
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Capacity (kW)
1000
Application
LO cooling
Material
stainless_steel_316
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval Alfa Laval T8 Series
Alfa Laval T8 Series
Model Family
T8
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval Alfa Laval T8 200kW Central cooling
Alfa Laval T8 200kW Central cooling
Model Family
T8
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Capacity (kW)
200
Application
Central cooling
Material
titanium
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval Alfa Laval T8 200kW FW cooling
Alfa Laval T8 200kW FW cooling
Model Family
T8
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Capacity (kW)
200
Application
FW cooling
Material
stainless_steel_316
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval Alfa Laval T8 500kW Central cooling
Alfa Laval T8 500kW Central cooling
Model Family
T8
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Capacity (kW)
500
Application
Central cooling
Material
titanium
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval Alfa Laval T8 500kW FW cooling
Alfa Laval T8 500kW FW cooling
Model Family
T8
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Capacity (kW)
500
Application
FW cooling
Material
stainless_steel_316
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval Alfa Laval T8 1000kW Central cooling
Alfa Laval T8 1000kW Central cooling
Model Family
T8
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Capacity (kW)
1000
Application
Central cooling
Material
titanium
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval Alfa Laval T8 1000kW FW cooling
Alfa Laval T8 1000kW FW cooling
Model Family
T8
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Capacity (kW)
1000
Application
FW cooling
Material
stainless_steel_316
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval Alfa Laval T8 2000kW Central cooling
Alfa Laval T8 2000kW Central cooling
Model Family
T8
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Capacity (kW)
2000
Application
Central cooling
Material
titanium
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval Alfa Laval T8 2000kW FW cooling
Alfa Laval T8 2000kW FW cooling
Model Family
T8
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Capacity (kW)
2000
Application
FW cooling
Material
stainless_steel_316
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval Alfa Laval T20 Series
Alfa Laval T20 Series
Model Family
T20
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval Alfa Laval T20 500kW Central cooling
Alfa Laval T20 500kW Central cooling
Model Family
T20
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Capacity (kW)
500
Application
Central cooling
Material
titanium
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval Alfa Laval T20 500kW Jacket water cooling
Alfa Laval T20 500kW Jacket water cooling
Model Family
T20
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Capacity (kW)
500
Application
Jacket water cooling
Material
stainless_steel_316
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval Alfa Laval T20 1000kW Central cooling
Alfa Laval T20 1000kW Central cooling
Model Family
T20
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Capacity (kW)
1000
Application
Central cooling
Material
titanium
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval Alfa Laval T20 1000kW Jacket water cooling
Alfa Laval T20 1000kW Jacket water cooling
Model Family
T20
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Capacity (kW)
1000
Application
Jacket water cooling
Material
stainless_steel_316
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval Alfa Laval T20 2000kW Central cooling
Alfa Laval T20 2000kW Central cooling
Model Family
T20
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Capacity (kW)
2000
Application
Central cooling
Material
titanium
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval Alfa Laval T20 2000kW Jacket water cooling
Alfa Laval T20 2000kW Jacket water cooling
Model Family
T20
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Capacity (kW)
2000
Application
Jacket water cooling
Material
stainless_steel_316
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval Alfa Laval T20 5000kW Central cooling
Alfa Laval T20 5000kW Central cooling
Model Family
T20
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Capacity (kW)
5000
Application
Central cooling
Material
titanium
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval Alfa Laval T20 5000kW Jacket water cooling
Alfa Laval T20 5000kW Jacket water cooling
Model Family
T20
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Capacity (kW)
5000
Application
Jacket water cooling
Material
stainless_steel_316
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval TS6 Series
Model Family
TS6
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval Alfa Laval TS6 100kW LO cooling
Alfa Laval TS6 100kW LO cooling
Model Family
TS6
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Capacity (kW)
100
Application
LO cooling
Material
stainless_steel_316
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval TS6 100kW FW cooling
Model Family
TS6
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Capacity (kW)
100
Application
FW cooling
Material
stainless_steel_316
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval Alfa Laval TS6 200kW LO cooling
Alfa Laval TS6 200kW LO cooling
Model Family
TS6
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Capacity (kW)
200
Application
LO cooling
Material
stainless_steel_316
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval Alfa Laval TS6 200kW FW cooling
Alfa Laval TS6 200kW FW cooling
Model Family
TS6
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Capacity (kW)
200
Application
FW cooling
Material
stainless_steel_316
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval Alfa Laval TS6 500kW LO cooling
Alfa Laval TS6 500kW LO cooling
Model Family
TS6
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Capacity (kW)
500
Application
LO cooling
Material
stainless_steel_316
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval TS6 500kW FW cooling
Model Family
TS6
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Capacity (kW)
500
Application
FW cooling
Material
stainless_steel_316
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval TS20 Series
Model Family
TS20
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval TS20 500kW Central cooling
Model Family
TS20
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Capacity (kW)
500
Application
Central cooling
Material
titanium
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval TS20 1000kW Central cooling
Model Family
TS20
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Capacity (kW)
1000
Application
Central cooling
Material
titanium
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval TS20 2000kW Central cooling
Model Family
TS20
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Capacity (kW)
2000
Application
Central cooling
Material
titanium
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval TS20 3000kW Central cooling
Model Family
TS20
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Capacity (kW)
3000
Application
Central cooling
Material
titanium
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval Alfa Laval AQ4 Series
Alfa Laval AQ4 Series
Model Family
AQ4
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval Alfa Laval AQ4 50kW LO cooling
Alfa Laval AQ4 50kW LO cooling
Model Family
AQ4
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Capacity (kW)
50
Application
LO cooling
Material
stainless_steel_316
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval Alfa Laval AQ4 50kW FW cooling
Alfa Laval AQ4 50kW FW cooling
Model Family
AQ4
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Capacity (kW)
50
Application
FW cooling
Material
stainless_steel_316
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval Alfa Laval AQ4 100kW LO cooling
Alfa Laval AQ4 100kW LO cooling
Model Family
AQ4
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Capacity (kW)
100
Application
LO cooling
Material
stainless_steel_316
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval Alfa Laval AQ4 100kW FW cooling
Alfa Laval AQ4 100kW FW cooling
Model Family
AQ4
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Capacity (kW)
100
Application
FW cooling
Material
stainless_steel_316
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval Alfa Laval AQ4 200kW LO cooling
Alfa Laval AQ4 200kW LO cooling
Model Family
AQ4
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Capacity (kW)
200
Application
LO cooling
Material
stainless_steel_316
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval Alfa Laval AQ4 200kW FW cooling
Alfa Laval AQ4 200kW FW cooling
Model Family
AQ4
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Capacity (kW)
200
Application
FW cooling
Material
stainless_steel_316
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval Alfa Laval AQ4 500kW LO cooling
Alfa Laval AQ4 500kW LO cooling
Model Family
AQ4
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Capacity (kW)
500
Application
LO cooling
Material
stainless_steel_316
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval Alfa Laval AQ4 500kW FW cooling
Alfa Laval AQ4 500kW FW cooling
Model Family
AQ4
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Capacity (kW)
500
Application
FW cooling
Material
stainless_steel_316
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval Alfa Laval AQ8 Series
Alfa Laval AQ8 Series
Model Family
AQ8
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval Alfa Laval AQ8 200kW Central cooling
Alfa Laval AQ8 200kW Central cooling
Model Family
AQ8
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Capacity (kW)
200
Application
Central cooling
Material
titanium
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval AQ8 500kW Central cooling
Model Family
AQ8
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Capacity (kW)
500
Application
Central cooling
Material
titanium
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval Alfa Laval AQ8 1000kW Central cooling
Alfa Laval AQ8 1000kW Central cooling
Model Family
AQ8
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Capacity (kW)
1000
Application
Central cooling
Material
titanium
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval Alfa Laval AQ14 Series
Alfa Laval AQ14 Series
Model Family
AQ14
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval Alfa Laval AQ14 500kW Central cooling
Alfa Laval AQ14 500kW Central cooling
Model Family
AQ14
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Capacity (kW)
500
Application
Central cooling
Material
titanium
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval Alfa Laval AQ14 500kW Jacket water cooling
Alfa Laval AQ14 500kW Jacket water cooling
Model Family
AQ14
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Capacity (kW)
500
Application
Jacket water cooling
Material
stainless_steel_316
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval Alfa Laval AQ14 1000kW Central cooling
Alfa Laval AQ14 1000kW Central cooling
Model Family
AQ14
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Capacity (kW)
1000
Application
Central cooling
Material
titanium
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval Alfa Laval AQ14 1000kW Jacket water cooling
Alfa Laval AQ14 1000kW Jacket water cooling
Model Family
AQ14
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Capacity (kW)
1000
Application
Jacket water cooling
Material
stainless_steel_316
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval Alfa Laval AQ14 2000kW Central cooling
Alfa Laval AQ14 2000kW Central cooling
Model Family
AQ14
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Capacity (kW)
2000
Application
Central cooling
Material
titanium
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval Alfa Laval AQ14 2000kW Jacket water cooling
Alfa Laval AQ14 2000kW Jacket water cooling
Model Family
AQ14
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Capacity (kW)
2000
Application
Jacket water cooling
Material
stainless_steel_316
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval Alfa Laval AQ14 5000kW Central cooling
Alfa Laval AQ14 5000kW Central cooling
Model Family
AQ14
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Capacity (kW)
5000
Application
Central cooling
Material
titanium
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval Alfa Laval AQ14 5000kW Jacket water cooling
Alfa Laval AQ14 5000kW Jacket water cooling
Model Family
AQ14
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Capacity (kW)
5000
Application
Jacket water cooling
Material
stainless_steel_316
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Manufacturer Datasheet
Datasheet
Alfa Laval (Sweden) M-Series Gasketed Plate Heat Exchanger
M-Series Gasketed Plate Heat Exchanger
50-10,000 kW thermal · Freshwater / Seawater / Lube Oil / Fuel Oil
Type
Gasketed Plate Heat Exchanger
Size Range
  • M3
  • M6
  • M10
  • M15
  • M20
  • M30
  • MX25
Power range (kW)
  • 10
  • 10000
Drive Type
Passive (no drive)
Construction
Stainless steel / titanium plates, NBR/EPDM gaskets, carbon steel frame
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Service: Gasket replacement every 5-8 years or at drydock. Plate cleaning with acid/alkaline solution annually. Tightening torque check annually. Plate inspection for pitting at each gasket renewal.
Spare Parts: Alfa Laval global network — excellent availability. Keep onboard: 1 set gaskets, cleaning chemicals. Lead time: 1-3 weeks for gaskets, 4-6 weeks for plates.
Manufacturer Datasheet
Datasheet
CB Series (Brazed Plate)
5-500 kW thermal · Freshwater / Lube Oil / Hydraulic Oil / Refrigerant
Type
Copper-Brazed Plate Heat Exchanger
Size Range
  • CB14
  • CB26
  • CB30
  • CB52
  • CB76
  • CB112
Power range (kW)
  • 5
  • 500
Drive Type
Passive
Construction
Stainless steel plates, copper brazed, no gaskets
Technical Specifications
Design Pressure M-Line
>10 bar (145 psi)
Marine Engine Room Modelle
T6 (DN60, 800 kW) bis T35 (DN350, 35.000 kW)
Marine FSRU Modelle
TS45, T45, T50 (DN450-500, 45.000-55.000 kW)
Temperaturbereich Standard
0–180°C (depending on model)
FSRU Temperaturbereich
-50 bis 150°C
Plattentypen
Chevron, Gemini Doppelwand, FlexFlow™
Product Lines
  • M-Line (High Pressure Series: M3, M6, M10, M15)
  • T-Series (Industrial: T2, T5, T6, T8, T10, T20, T25)
  • AQ-Series (HVAC: AQ1, AQ2, AQ3, AQ4, AQ10)
  • Marine Line (Engine Room: T6-T35; FSRU: TS45, T45, T50)
  • Baseline (Competitive Line)
  • Hygienic Line (Premium)
Heat Exchanger Type
Alfa Laval Gasketed Plate Heat Exchangers (GPHE)
Common Failures & Inspection Points
  • Area: Gasket wear and embrittlement
    Check: Inspect seals visually for cracks, hardening, swelling and discoloration; verify material compatibility with process fluids; check ClipGrip™ fastening. Aging symptoms and loss of elasticity are replacement indicators.
  • Area: Clamping dimension and tightness (Tightening Dimension A)
    Check: Verify A-dimension per manufacturer specifications with caliper (metallic contact required). Keep bolts clean and lubricated. Avoid over-tightening. Perform regular re-tightening after operating hours. At too low A-dimension, pressure loss and leakage are to be expected.
  • Area: Fouling and scale formation on plate surfaces
    Check: Monitor pressure differential across heat exchanger (increase indicates deposits). Check heat duty versus design value. Optimize CIP intervals after performance audits. Deposits generate higher pump load (energy waste up to 8,000 kWh/year possible).
  • Area: Plate corrosion and cracks / breakthroughs
    Check: After disassembly, inspect plate surfaces for local measurements (pitting), cracks and perforation corrosion. Verify material compatibility with process fluid. Observe fatigue cracks especially at corners and transitions. When perforation occurs, plate is unrecoverable and must be replaced.
  • Area: Pressure test and tightness inspection
    Check: After disassembly and cleaning, perform hydrostatic test per data sheet. Test pressure typically 1.5× operating pressure. Check external and internal leakage at all connections and plate edges. Document findings.
  • Area: Plate sequence and alignment (5-point alignment)
    Check: After opening, verify plate sequence and honeycomb pattern (corrected chevron patterns must alternate). Activate/validate 5-point alignment system for larger units. Offset or misplacement leads to short-circuiting and reduced heat duty.

Type-universal inspection points for Alfa Laval Gasketed Plate Heat Exchangers (GPHE) (Alfa Laval, 2026-06). Per-model specs not auto-populated.

Service: No field cleaning possible — brazed construction. Replace when pressure drop exceeds 50% above clean value. Typical life 5-10 years depending on medium quality. Install strainers upstream.
Spare Parts: Replacement units from Alfa Laval. Lead time: 1-3 weeks for standard sizes. Keep 1 spare onboard for critical cooling circuits.
Manufacturer Datasheet
Datasheet
AlfaNova Fusion-Bonded
10-1,000 kW thermal · Freshwater / Lube Oil / Aggressive Media
Type
Fusion-Bonded Plate Heat Exchanger (100% Stainless Steel)
Size Range
  • AlfaNova 14
  • AlfaNova 27
  • AlfaNova 52
  • AlfaNova 76
Power range (kW)
  • 10
  • 1000
Drive Type
Passive
Construction
100% stainless steel, fusion-bonded (no copper, no gaskets)
Technical Specifications
Material (CB Series)
Stainless steel 1.4401 plates, brazed with 100% copper in vacuum furnace
Material (AlfaNova/AlfaNovaM)
100% stainless steel 316 (plates and brazing), patented AlfaFusion™ technology
Temperature Range (AlfaNova)
-196°C to 550°C
Pressure Rating (AlfaNovaM)
Up to 50 bar
Design Features
Gasket-free (brazed) or laser-welded sections; corrugated plate geometry; counter-current flow; single/dual/multi-pass configurations
Marine Models Available
AlfaNovaM (HP 27, HP 76, HP 400); CBM series
Product Lines
  • CB (Copper-Brazed Series)
  • AlfaNova (Fusion-Bonded 100% Stainless Steel)
  • AlfaNovaM (Marine-Classified Fusion-Bonded)
  • CBM (Copper-Brazed Marine)
Heat Exchanger Type
Alfa Laval Brazed & Fusion-Bonded Plate Heat Exchanger (CB / AlfaNova)
Common Failures & Inspection Points
  • Area: Fouling accumulation (mineral scaling, oil particulates, bio-fouling) reducing thermal efficiency and causing pressure drop increase
    Check: Visual inspection inside heat exchanger after opening plate package; UV light detection—white spots indicate water-soluble scaling, black spots indicate oil-soluble deposits. Monitor pressure drop across unit during operation as early fouling indicator. If fouling detected, perform optimized CIP (Cleaning-in-Place) with custom-formulated cleaning agents (2–4 hours typical duration). Backflushing (3× daily, 30-second pulses) may prevent accumulation.
  • Area: Leakage from gasketed interfaces or micro-cracks in plates due to cyclic thermal stress, chemical attack, or pressure fatigue
    Check: During operation: inspect for any liquid weeping from gasket glands or plate boundaries—must be zero. Perform periodic integrity testing (recommended every 2 years per Alfa Laval): place donor fluid in primary path, recipient fluid in secondary path, apply positive pressure differential, monitor electronically for donor fluid leakage into secondary circuit. On brazed/fusion-bonded units (CB, AlfaNova), inspect solder/bond lines for microcracks using visual inspection and dye-penetrant testing if available.
  • Area: Thermal fatigue and cyclic stress cracking: frequent start-stop cycles and large temperature swings (especially in brazed CB units) cause deformation, gasket bl
    Check: Monitor inlet and outlet temperature differentials during operation. Document frequency and magnitude of temperature swings. For brazed CB units, be especially cautious—Alfa Laval notes brazed units are sensitive to large, sudden, frequent temperature changes. Inspect solder-joint interfaces during maintenance outages for hairline cracks. Check tightening torque of frame bolts according to Alfa Laval specifications; incorrect bolt load accelerates fatigue. Request Alfa Laval assessment if temperature cycling frequency exceeds design envelope.
  • Area: Gasket degradation, cracking, and incompatibility: aging, chemical attack, thermal cycling, and high-temperature volume expansion cause loss of sealing integrit
    Check: Visually inspect all gasket grooves when plate package is opened—look for cracks, discoloration, swelling, or hardening. Confirm gasket material compatibility with both heat transfer media (check Alfa Laval compatibility matrix). If cracks detected or if unit has been in service >5–7 years, replace gaskets with certified Alfa Laval equivalents using correct groove placement procedure. After replacement, perform torque-down sequence per manual and conduct integrity test before restart.
  • Area: Corrosion and pitting of plates, gland seals, and frame components (especially in salt-water marine environments) leading to perforation and contamination
    Check: After opening plate package, inspect plate surfaces under good lighting for pitting, discoloration, or rust staining—prioritize gland/seal areas and plate corners where stagnation may occur. In marine service, perform visual assessment annually or after seasonal lay-ups. For high-corrosion marine duty, verify AlfaNovaM (all-stainless-steel) is in use rather than standard CB (which may have dissimilar metals). Confirm flush/circulation program is followed to prevent salt/sediment accumulation. If pitting observed, consult Alfa Laval on material upgrade or replacement.
  • Area: Blockage, clogging, and low shear stress areas in flow channels causing uneven temperature distribution and reduced capacity
    Check: Monitor differential temperature across inlet and outlet on each circuit. Uneven temperatures indicate distribution maldistribution or internal blockage. Inspect plate inlet and outlet ports visually for debris or sediment before opening. Compare actual thermal performance (capacity, outlet temperature) against design baseline—significant drop indicates fouling or flow restriction. If blockage suspected in narrow channels, perform flushing with appropriate solvents (per CIP protocol) or request Alfa Laval chemical cleaning. Verify inlet filtration is active to prevent future particulate ingress.

Universal inspection points type for Alfa Laval Brazed & Fusion-Bonded Plate Heat Exchanger (CB / AlfaNova) (Alfa Laval, 2026-06). Per-model specs not auto-filled.

Service: Replace when fouled. Suitable for applications where copper contamination is unacceptable (e.g., ammonia refrigeration circuits). Typical life 8-15 years.
Spare Parts: Alfa Laval direct. Lead time: 2-4 weeks. Premium price vs. CB series.
Manufacturer Datasheet
Datasheet
Aalborg Exhaust Gas Economiser
200-15,000 kW thermal · Exhaust Gas / Feedwater
Type
Finned Tube Exhaust Gas Economiser
Size Range
  • AQ-2
  • AQ-5
  • AQ-7
  • AQ-10
  • AQ-14
Power range (kW)
  • 200
  • 15000
Drive Type
Passive
Construction
Finned steel tubes, soot-blow capable
Technical Specifications
Design Pressure (MD/MC)
13-16 bar(g) shell side; up to 13 bar(g) tube side
Design Temperature Range
Up to 204-300°C (varies by model; EH-W limited to 95°C)
Tube Material (MD/MC)
Cu/Ni 70/30 (MD-T) or Cu/Ni 90/10 (MC) for seawater/corrosive media
Shell Material
Carbon steel (custom materials available)
Thermal Capacity
10 kW to ~5000 kW depending on model and configuration
Standard Certifications
ABS, DNV, BV, ClassNK marine classification society approved; CE/PED certified
Product Lines
  • Aalborg MD (Drain Cooler / Tank Heater / Oil Cooler)
  • Aalborg MC (Compact Oil & Steam Cooler)
  • Aalborg MX (Compact U-Tube Heater)
  • Aalborg EH (Electric Oil Heater)
  • Aalborg EH-W (Electric Water Heater)
  • Aalborg EH-U (Engine Jacket Water Cooler)
  • Aalborg MP-C (Cargo Heater)
  • Aalborg ACE (Air-Cooled Finned Tube Heat Exchangers)
Heat Exchanger Type
Alfa Laval Shell-and-Tube & Air-Cooled Heat Exchangers (Marine)
Common Failures & Inspection Points
  • Area: Tube Bundle Fouling (Scale, Deposits, Biological Growth)
    Check: Visually inspect tube bundle for scaling, sediment, or biofilm deposits. Measure pressure drop across shell and tube sides; marked increase indicates fouling. Advanced inspection: eddy current testing (ECT) or ultrasonic thickness measurement (UT) to assess internal fouling. If fouling present, remove bundle and flush seawater passages with fresh water.
  • Area: Tube Corrosion, Pitting, Erosion (Seawater Side)
    Check: Visually inspect tubes for pitting, erosion marks, or de-zincification (pinkish copper discoloration). Use fluorescent dye (UV light) for microscopic perforation detection. For ferrous tubes: NFT, RFT, MFL, or IRIS testing. For Cu/Ni: Eddy current testing (ECT). Apply ultrasonic thickness mapping (UT) to identify wall thinning and erosion patterns. Check that seawater pressure remains lower than jacket water pressure to prevent seawater intrusion if perforations occur.
  • Area: Tube Leakage (Inter-Tube or Tube-to-Tubesheet)
    Check: Drain both shell and tube sides completely. Visual inspection of tubesheets and nozzles for visible cracks. Apply soap bubble test: pressurize shell side to working pressure, mask one tubesheet completely, apply soapy liquid on opposite side—leaking tubes create bubbles. Alternative: fluorescent dye solution (dissolve sodium crystals in water surrounding tubes, view under UV light for fluorescent halos indicating small leaks). Perform pressure test to confirm repair after remedial work.
  • Area: Zinc Anode Depletion & Galvanic Corrosion
    Check: Remove and inspect zinc anodes fitted on cover/shell-side. Measure remaining thickness; replace if degraded below ~6 mm. Never use chemical descaler (phosphoric or proprietary acid) while anodes are installed—acids destroy zinc instantly. For seawater-cooled units: ensure sacrificial anode or impressed current cathodic protection (ICCP) system is operational. Check electrical continuity and voltage of ICCP system if installed. Document anode replacement date and condition in log.
  • Area: Water-Side Scale & Iron Hydroxide Deposits (Jacket Water)
    Check: Monitor outlet water color for rust or discoloration (iron oxide formation). If present, drain exchanger and inspect interior shell walls and tube exteriors for reddish-brown deposits. Perform chemical cleaning: isolate unit with shutoff valves, circulate phosphoric acid-based descaler (safe for Cu/Ni) via small pump for 30–90 minutes (avoid proprietary acid during anode presence). Flush thoroughly with fresh water after chemical cleaning. Remove anodes before and refit after chemical treatment. Check cover gaskets for damage and renew if necessary.
  • Area: Air-Cooled Fin Fouling & Plugged Header (Charge Air Coolers)
    Check: For air-cooled units (ACE models): inspect fins visually for salt spray deposits, algae, or debris accumulation (reduces air flow). Check header box plugs for seepage under pressure (Alfa Laval SealTight system reduces this risk). Apply low air-side pressure + soapy water on seawater side to detect leak locations (bubbles form at leaks). Mechanical cleaning: gentle water spray or compressed air. If high plugging risk suspected, inspect plug gaskets and threading. For marine environments, monitor corrosion of aluminum fins and apply protective coatings if necessary.

Type universal inspection points for Alfa Laval Shell-and-Tube & Air-Cooled Heat Exchangers (Marine) (Alfa Laval, 2026-06). Per-model specs not auto-filled.

Service: Soot blowing DAILY when running on HFO. Exhaust gas temperature monitoring before/after — temperature rise indicates soot buildup. Water-side treatment per boiler water standards. Complete inspection at drydock — tube thickness measurement.
Spare Parts: Alfa Laval Aalborg (Aalborg, Denmark). Tube replacement sections: 6-10 weeks lead time. Soot blower elements: 2-4 weeks.
Manufacturer Datasheet
Datasheet
T8-FM
Model Number
TAP00001YX
Datasheet
AlfaQ-52-MAX
Model number
AlfaQ-52-MAX
Plate count (min)
20 plates
Plate count (max)
350 plates
Max flow rate
230.0 m3/h
Design pressure
16 bar
Application
two-phase condensation
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
350 plates
Effective flow rate at duty point
230.0 m3/h
Configuration
MAX configuration
Common Failures & Inspection Points
  • Heat-transfer surface fouling, noticed as reduced cooling or heating capacity and increased temperature approach
  • Seal or pressure-boundary leakage, causing external seepage or contamination between circuits
  • Flow restriction from debris or deposits, indicated by abnormal pressure drop or poor circulation
  • Corrosion or erosion of internal heat-transfer surfaces, leading to cross-leakage or unexplained fluid loss
  • Air locking or poor venting after maintenance, causing unstable temperatures and reduced effective flow
Service: Trend inlet/outlet temperatures and pressure drop, inspect all external joints and support points, and clean the heat-transfer surfaces when performance deteriorates. Verify vent and drain arrangements are clear and that isolation valves do not pass when the unit is opened. Any pressure test, opening dimension or internal inspection should follow the maker's procedure; refer to the manufacturer documentation for the exact figure. At class survey, focus on pressure-boundary integrity, signs of cross-contamination and repair traceability.
Spare Parts: Carry sealing elements and connection gaskets specific to the installed unit, together with any manufacturer-recommended service hardware. For a critical cooler or heater, consider an approved spare plate or exchange unit according to the vessel's redundancy.
Use Cases: Used for general shipboard or process heating, cooling and heat-recovery duties where compact separation of two fluid circuits is required. The exact ship type depends on the configured media and materials.
Manufacturer Datasheet
Datasheet
AlfaCond-400
Model number
AlfaCond-400
Plate count (min)
20 plates
Plate count (max)
300 plates
Max flow rate
250.0 m3/h
Design pressure
16 bar
Application
vacuum condenser, MED waste heat
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Common Failures & Inspection Points
  • Loss of vacuum-side performance from fouling or deposits, noticed as reduced condensing capacity or higher process pressure
  • Gasket deterioration or incorrect plate-pack compression, causing external leakage or cross-contamination indications
  • Plate or weld damage from corrosion, fatigue or unsuitable media, indicated by mixing of circuits or unexplained level changes
  • Air ingress at connections or seals, causing unstable vacuum and reduced condenser performance
  • Cooling-water restriction from fouling or blockage, seen as increased temperature approach and reduced heat rejection
Service: Trend inlet and outlet temperatures, pressure drop and vacuum performance against the vessel or plant baseline. Inspect the frame, plate-pack edges, nozzles and gaskets for leakage, corrosion and distortion, and clean the heat-transfer surfaces when performance indicates fouling. When opening the unit, keep plates aligned and record the closing dimension and plate sequence exactly as specified by Alfa Laval. For class or statutory survey, confirm pressure-boundary condition, leakage history, isolation arrangements and any required test records; refer to the manufacturer documentation for the exact figure and service procedure.
Spare Parts: Keep the correct gasket set, representative plate or cassette spares where the vessel's criticality justifies them, connection seals and the maker-specified service consumables. For remote trading, also consider frame-bolt service items and any dedicated cleaning or gasket-handling materials required by the installed configuration.
Use Cases: Used where compact vacuum condensation is required, including evaporation and process-recovery plants on specialised vessels, offshore or floating production units, and other marine process installations. It is most relevant where condensate recovery, limited machinery-space footprint or accessible plate cleaning are important.
Manufacturer Datasheet
Datasheet
AlfaCond-400-30P
Model number
AlfaCond-400-30P
Plate count (min)
20 plates
Plate count (max)
300 plates
Max flow rate
50.0 m3/h
Design pressure
16 bar
Application
vacuum condenser, MED waste heat
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
62 plates
Effective flow rate at duty point
50.0 m3/h
Configuration
30P configuration
Common Failures & Inspection Points
  • Loss of vacuum-side performance from fouling or deposits, noticed as reduced condensing capacity or higher process pressure
  • Gasket deterioration or incorrect plate-pack compression, causing external leakage or cross-contamination indications
  • Plate or weld damage from corrosion, fatigue or unsuitable media, indicated by mixing of circuits or unexplained level changes
  • Air ingress at connections or seals, causing unstable vacuum and reduced condenser performance
  • Cooling-water restriction from fouling or blockage, seen as increased temperature approach and reduced heat rejection
Service: Trend inlet and outlet temperatures, pressure drop and vacuum performance against the vessel or plant baseline. Inspect the frame, plate-pack edges, nozzles and gaskets for leakage, corrosion and distortion, and clean the heat-transfer surfaces when performance indicates fouling. When opening the unit, keep plates aligned and record the closing dimension and plate sequence exactly as specified by Alfa Laval. For class or statutory survey, confirm pressure-boundary condition, leakage history, isolation arrangements and any required test records; refer to the manufacturer documentation for the exact figure and service procedure.
Spare Parts: Keep the correct gasket set, representative plate or cassette spares where the vessel's criticality justifies them, connection seals and the maker-specified service consumables. For remote trading, also consider frame-bolt service items and any dedicated cleaning or gasket-handling materials required by the installed configuration.
Use Cases: Used where compact vacuum condensation is required, including evaporation and process-recovery plants on specialised vessels, offshore or floating production units, and other marine process installations. It is most relevant where condensate recovery, limited machinery-space footprint or accessible plate cleaning are important.
Manufacturer Datasheet
Datasheet
AlfaCond-400-60P
Model number
AlfaCond-400-60P
Plate count (min)
20 plates
Plate count (max)
300 plates
Max flow rate
95.0 m3/h
Design pressure
16 bar
Application
vacuum condenser, MED waste heat
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
104 plates
Effective flow rate at duty point
95.0 m3/h
Configuration
60P configuration
Common Failures & Inspection Points
  • Loss of vacuum-side performance from fouling or deposits, noticed as reduced condensing capacity or higher process pressure
  • Gasket deterioration or incorrect plate-pack compression, causing external leakage or cross-contamination indications
  • Plate or weld damage from corrosion, fatigue or unsuitable media, indicated by mixing of circuits or unexplained level changes
  • Air ingress at connections or seals, causing unstable vacuum and reduced condenser performance
  • Cooling-water restriction from fouling or blockage, seen as increased temperature approach and reduced heat rejection
Service: Trend inlet and outlet temperatures, pressure drop and vacuum performance against the vessel or plant baseline. Inspect the frame, plate-pack edges, nozzles and gaskets for leakage, corrosion and distortion, and clean the heat-transfer surfaces when performance indicates fouling. When opening the unit, keep plates aligned and record the closing dimension and plate sequence exactly as specified by Alfa Laval. For class or statutory survey, confirm pressure-boundary condition, leakage history, isolation arrangements and any required test records; refer to the manufacturer documentation for the exact figure and service procedure.
Spare Parts: Keep the correct gasket set, representative plate or cassette spares where the vessel's criticality justifies them, connection seals and the maker-specified service consumables. For remote trading, also consider frame-bolt service items and any dedicated cleaning or gasket-handling materials required by the installed configuration.
Use Cases: Used where compact vacuum condensation is required, including evaporation and process-recovery plants on specialised vessels, offshore or floating production units, and other marine process installations. It is most relevant where condensate recovery, limited machinery-space footprint or accessible plate cleaning are important.
Manufacturer Datasheet
Datasheet
AlfaCond-400-90P
Model number
AlfaCond-400-90P
Plate count (min)
20 plates
Plate count (max)
300 plates
Max flow rate
137.5 m3/h
Design pressure
16 bar
Application
vacuum condenser, MED waste heat
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
146 plates
Effective flow rate at duty point
137.5 m3/h
Configuration
90P configuration
Common Failures & Inspection Points
  • Loss of vacuum-side performance from fouling or deposits, noticed as reduced condensing capacity or higher process pressure
  • Gasket deterioration or incorrect plate-pack compression, causing external leakage or cross-contamination indications
  • Plate or weld damage from corrosion, fatigue or unsuitable media, indicated by mixing of circuits or unexplained level changes
  • Air ingress at connections or seals, causing unstable vacuum and reduced condenser performance
  • Cooling-water restriction from fouling or blockage, seen as increased temperature approach and reduced heat rejection
Service: Trend inlet and outlet temperatures, pressure drop and vacuum performance against the vessel or plant baseline. Inspect the frame, plate-pack edges, nozzles and gaskets for leakage, corrosion and distortion, and clean the heat-transfer surfaces when performance indicates fouling. When opening the unit, keep plates aligned and record the closing dimension and plate sequence exactly as specified by Alfa Laval. For class or statutory survey, confirm pressure-boundary condition, leakage history, isolation arrangements and any required test records; refer to the manufacturer documentation for the exact figure and service procedure.
Spare Parts: Keep the correct gasket set, representative plate or cassette spares where the vessel's criticality justifies them, connection seals and the maker-specified service consumables. For remote trading, also consider frame-bolt service items and any dedicated cleaning or gasket-handling materials required by the installed configuration.
Use Cases: Used where compact vacuum condensation is required, including evaporation and process-recovery plants on specialised vessels, offshore or floating production units, and other marine process installations. It is most relevant where condensate recovery, limited machinery-space footprint or accessible plate cleaning are important.
Manufacturer Datasheet
Datasheet
AlfaCond-400-120P
Model number
AlfaCond-400-120P
Plate count (min)
20 plates
Plate count (max)
300 plates
Max flow rate
175.0 m3/h
Design pressure
16 bar
Application
vacuum condenser, MED waste heat
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
188 plates
Effective flow rate at duty point
175.0 m3/h
Configuration
120P configuration
Common Failures & Inspection Points
  • Loss of vacuum-side performance from fouling or deposits, noticed as reduced condensing capacity or higher process pressure
  • Gasket deterioration or incorrect plate-pack compression, causing external leakage or cross-contamination indications
  • Plate or weld damage from corrosion, fatigue or unsuitable media, indicated by mixing of circuits or unexplained level changes
  • Air ingress at connections or seals, causing unstable vacuum and reduced condenser performance
  • Cooling-water restriction from fouling or blockage, seen as increased temperature approach and reduced heat rejection
Service: Trend inlet and outlet temperatures, pressure drop and vacuum performance against the vessel or plant baseline. Inspect the frame, plate-pack edges, nozzles and gaskets for leakage, corrosion and distortion, and clean the heat-transfer surfaces when performance indicates fouling. When opening the unit, keep plates aligned and record the closing dimension and plate sequence exactly as specified by Alfa Laval. For class or statutory survey, confirm pressure-boundary condition, leakage history, isolation arrangements and any required test records; refer to the manufacturer documentation for the exact figure and service procedure.
Spare Parts: Keep the correct gasket set, representative plate or cassette spares where the vessel's criticality justifies them, connection seals and the maker-specified service consumables. For remote trading, also consider frame-bolt service items and any dedicated cleaning or gasket-handling materials required by the installed configuration.
Use Cases: Used where compact vacuum condensation is required, including evaporation and process-recovery plants on specialised vessels, offshore or floating production units, and other marine process installations. It is most relevant where condensate recovery, limited machinery-space footprint or accessible plate cleaning are important.
Manufacturer Datasheet
Datasheet
AlfaCond-400-150P
Model number
AlfaCond-400-150P
Plate count (min)
20 plates
Plate count (max)
300 plates
Max flow rate
212.5 m3/h
Design pressure
16 bar
Application
vacuum condenser, MED waste heat
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
230 plates
Effective flow rate at duty point
212.5 m3/h
Configuration
150P configuration
Common Failures & Inspection Points
  • Loss of vacuum-side performance from fouling or deposits, noticed as reduced condensing capacity or higher process pressure
  • Gasket deterioration or incorrect plate-pack compression, causing external leakage or cross-contamination indications
  • Plate or weld damage from corrosion, fatigue or unsuitable media, indicated by mixing of circuits or unexplained level changes
  • Air ingress at connections or seals, causing unstable vacuum and reduced condenser performance
  • Cooling-water restriction from fouling or blockage, seen as increased temperature approach and reduced heat rejection
Service: Trend inlet and outlet temperatures, pressure drop and vacuum performance against the vessel or plant baseline. Inspect the frame, plate-pack edges, nozzles and gaskets for leakage, corrosion and distortion, and clean the heat-transfer surfaces when performance indicates fouling. When opening the unit, keep plates aligned and record the closing dimension and plate sequence exactly as specified by Alfa Laval. For class or statutory survey, confirm pressure-boundary condition, leakage history, isolation arrangements and any required test records; refer to the manufacturer documentation for the exact figure and service procedure.
Spare Parts: Keep the correct gasket set, representative plate or cassette spares where the vessel's criticality justifies them, connection seals and the maker-specified service consumables. For remote trading, also consider frame-bolt service items and any dedicated cleaning or gasket-handling materials required by the installed configuration.
Use Cases: Used where compact vacuum condensation is required, including evaporation and process-recovery plants on specialised vessels, offshore or floating production units, and other marine process installations. It is most relevant where condensate recovery, limited machinery-space footprint or accessible plate cleaning are important.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. AlfaCond-400-180P
AlfaCond-400-180P
Model number
AlfaCond-400-180P
Plate count (min)
20 plates
Plate count (max)
300 plates
Max flow rate
237.5 m3/h
Design pressure
16 bar
Application
vacuum condenser, MED waste heat
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
272 plates
Effective flow rate at duty point
237.5 m3/h
Configuration
180P configuration
Common Failures & Inspection Points
  • Loss of vacuum-side performance from fouling or deposits, noticed as reduced condensing capacity or higher process pressure
  • Gasket deterioration or incorrect plate-pack compression, causing external leakage or cross-contamination indications
  • Plate or weld damage from corrosion, fatigue or unsuitable media, indicated by mixing of circuits or unexplained level changes
  • Air ingress at connections or seals, causing unstable vacuum and reduced condenser performance
  • Cooling-water restriction from fouling or blockage, seen as increased temperature approach and reduced heat rejection
Service: Trend inlet and outlet temperatures, pressure drop and vacuum performance against the vessel or plant baseline. Inspect the frame, plate-pack edges, nozzles and gaskets for leakage, corrosion and distortion, and clean the heat-transfer surfaces when performance indicates fouling. When opening the unit, keep plates aligned and record the closing dimension and plate sequence exactly as specified by Alfa Laval. For class or statutory survey, confirm pressure-boundary condition, leakage history, isolation arrangements and any required test records; refer to the manufacturer documentation for the exact figure and service procedure.
Spare Parts: Keep the correct gasket set, representative plate or cassette spares where the vessel's criticality justifies them, connection seals and the maker-specified service consumables. For remote trading, also consider frame-bolt service items and any dedicated cleaning or gasket-handling materials required by the installed configuration.
Use Cases: Used where compact vacuum condensation is required, including evaporation and process-recovery plants on specialised vessels, offshore or floating production units, and other marine process installations. It is most relevant where condensate recovery, limited machinery-space footprint or accessible plate cleaning are important.
Manufacturer Datasheet
Datasheet
AlfaCond-400-MAX
Model number
AlfaCond-400-MAX
Plate count (min)
20 plates
Plate count (max)
300 plates
Max flow rate
250.0 m3/h
Design pressure
16 bar
Application
vacuum condenser, MED waste heat
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
300 plates
Effective flow rate at duty point
250.0 m3/h
Configuration
MAX configuration
Common Failures & Inspection Points
  • Loss of vacuum-side performance from fouling or deposits, noticed as reduced condensing capacity or higher process pressure
  • Gasket deterioration or incorrect plate-pack compression, causing external leakage or cross-contamination indications
  • Plate or weld damage from corrosion, fatigue or unsuitable media, indicated by mixing of circuits or unexplained level changes
  • Air ingress at connections or seals, causing unstable vacuum and reduced condenser performance
  • Cooling-water restriction from fouling or blockage, seen as increased temperature approach and reduced heat rejection
Service: Trend inlet and outlet temperatures, pressure drop and vacuum performance against the vessel or plant baseline. Inspect the frame, plate-pack edges, nozzles and gaskets for leakage, corrosion and distortion, and clean the heat-transfer surfaces when performance indicates fouling. When opening the unit, keep plates aligned and record the closing dimension and plate sequence exactly as specified by Alfa Laval. For class or statutory survey, confirm pressure-boundary condition, leakage history, isolation arrangements and any required test records; refer to the manufacturer documentation for the exact figure and service procedure.
Spare Parts: Keep the correct gasket set, representative plate or cassette spares where the vessel's criticality justifies them, connection seals and the maker-specified service consumables. For remote trading, also consider frame-bolt service items and any dedicated cleaning or gasket-handling materials required by the installed configuration.
Use Cases: Used where compact vacuum condensation is required, including evaporation and process-recovery plants on specialised vessels, offshore or floating production units, and other marine process installations. It is most relevant where condensate recovery, limited machinery-space footprint or accessible plate cleaning are important.
Manufacturer Datasheet
Datasheet
AlfaCond-600
Model number
AlfaCond-600
Plate count (min)
20 plates
Plate count (max)
350 plates
Max flow rate
380.0 m3/h
Design pressure
16 bar
Application
vacuum condenser
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Common Failures & Inspection Points
  • Loss of vacuum-side performance from fouling or deposits, noticed as reduced condensing capacity or higher process pressure
  • Gasket deterioration or incorrect plate-pack compression, causing external leakage or cross-contamination indications
  • Plate or weld damage from corrosion, fatigue or unsuitable media, indicated by mixing of circuits or unexplained level changes
  • Air ingress at connections or seals, causing unstable vacuum and reduced condenser performance
  • Cooling-water restriction from fouling or blockage, seen as increased temperature approach and reduced heat rejection
Service: Trend inlet and outlet temperatures, pressure drop and vacuum performance against the vessel or plant baseline. Inspect the frame, plate-pack edges, nozzles and gaskets for leakage, corrosion and distortion, and clean the heat-transfer surfaces when performance indicates fouling. When opening the unit, keep plates aligned and record the closing dimension and plate sequence exactly as specified by Alfa Laval. For class or statutory survey, confirm pressure-boundary condition, leakage history, isolation arrangements and any required test records; refer to the manufacturer documentation for the exact figure and service procedure.
Spare Parts: Keep the correct gasket set, representative plate or cassette spares where the vessel's criticality justifies them, connection seals and the maker-specified service consumables. For remote trading, also consider frame-bolt service items and any dedicated cleaning or gasket-handling materials required by the installed configuration.
Use Cases: Used where compact vacuum condensation is required, including evaporation and process-recovery plants on specialised vessels, offshore or floating production units, and other marine process installations. It is most relevant where condensate recovery, limited machinery-space footprint or accessible plate cleaning are important.
Manufacturer Datasheet
Datasheet
AlfaCond-600-30P
Model number
AlfaCond-600-30P
Plate count (min)
20 plates
Plate count (max)
350 plates
Max flow rate
76.0 m3/h
Design pressure
16 bar
Application
vacuum condenser
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
69 plates
Effective flow rate at duty point
76.0 m3/h
Configuration
30P configuration
Common Failures & Inspection Points
  • Loss of vacuum-side performance from fouling or deposits, noticed as reduced condensing capacity or higher process pressure
  • Gasket deterioration or incorrect plate-pack compression, causing external leakage or cross-contamination indications
  • Plate or weld damage from corrosion, fatigue or unsuitable media, indicated by mixing of circuits or unexplained level changes
  • Air ingress at connections or seals, causing unstable vacuum and reduced condenser performance
  • Cooling-water restriction from fouling or blockage, seen as increased temperature approach and reduced heat rejection
Service: Trend inlet and outlet temperatures, pressure drop and vacuum performance against the vessel or plant baseline. Inspect the frame, plate-pack edges, nozzles and gaskets for leakage, corrosion and distortion, and clean the heat-transfer surfaces when performance indicates fouling. When opening the unit, keep plates aligned and record the closing dimension and plate sequence exactly as specified by Alfa Laval. For class or statutory survey, confirm pressure-boundary condition, leakage history, isolation arrangements and any required test records; refer to the manufacturer documentation for the exact figure and service procedure.
Spare Parts: Keep the correct gasket set, representative plate or cassette spares where the vessel's criticality justifies them, connection seals and the maker-specified service consumables. For remote trading, also consider frame-bolt service items and any dedicated cleaning or gasket-handling materials required by the installed configuration.
Use Cases: Used where compact vacuum condensation is required, including evaporation and process-recovery plants on specialised vessels, offshore or floating production units, and other marine process installations. It is most relevant where condensate recovery, limited machinery-space footprint or accessible plate cleaning are important.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. AlfaCond-600-60P
AlfaCond-600-60P
Model number
AlfaCond-600-60P
Plate count (min)
20 plates
Plate count (max)
350 plates
Max flow rate
144.4 m3/h
Design pressure
16 bar
Application
vacuum condenser
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
119 plates
Effective flow rate at duty point
144.4 m3/h
Configuration
60P configuration
Common Failures & Inspection Points
  • Loss of vacuum-side performance from fouling or deposits, noticed as reduced condensing capacity or higher process pressure
  • Gasket deterioration or incorrect plate-pack compression, causing external leakage or cross-contamination indications
  • Plate or weld damage from corrosion, fatigue or unsuitable media, indicated by mixing of circuits or unexplained level changes
  • Air ingress at connections or seals, causing unstable vacuum and reduced condenser performance
  • Cooling-water restriction from fouling or blockage, seen as increased temperature approach and reduced heat rejection
Service: Trend inlet and outlet temperatures, pressure drop and vacuum performance against the vessel or plant baseline. Inspect the frame, plate-pack edges, nozzles and gaskets for leakage, corrosion and distortion, and clean the heat-transfer surfaces when performance indicates fouling. When opening the unit, keep plates aligned and record the closing dimension and plate sequence exactly as specified by Alfa Laval. For class or statutory survey, confirm pressure-boundary condition, leakage history, isolation arrangements and any required test records; refer to the manufacturer documentation for the exact figure and service procedure.
Spare Parts: Keep the correct gasket set, representative plate or cassette spares where the vessel's criticality justifies them, connection seals and the maker-specified service consumables. For remote trading, also consider frame-bolt service items and any dedicated cleaning or gasket-handling materials required by the installed configuration.
Use Cases: Used where compact vacuum condensation is required, including evaporation and process-recovery plants on specialised vessels, offshore or floating production units, and other marine process installations. It is most relevant where condensate recovery, limited machinery-space footprint or accessible plate cleaning are important.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. AlfaCond-600-90P
AlfaCond-600-90P
Model number
AlfaCond-600-90P
Plate count (min)
20 plates
Plate count (max)
350 plates
Max flow rate
209.0 m3/h
Design pressure
16 bar
Application
vacuum condenser
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
168 plates
Effective flow rate at duty point
209.0 m3/h
Configuration
90P configuration
Common Failures & Inspection Points
  • Loss of vacuum-side performance from fouling or deposits, noticed as reduced condensing capacity or higher process pressure
  • Gasket deterioration or incorrect plate-pack compression, causing external leakage or cross-contamination indications
  • Plate or weld damage from corrosion, fatigue or unsuitable media, indicated by mixing of circuits or unexplained level changes
  • Air ingress at connections or seals, causing unstable vacuum and reduced condenser performance
  • Cooling-water restriction from fouling or blockage, seen as increased temperature approach and reduced heat rejection
Service: Trend inlet and outlet temperatures, pressure drop and vacuum performance against the vessel or plant baseline. Inspect the frame, plate-pack edges, nozzles and gaskets for leakage, corrosion and distortion, and clean the heat-transfer surfaces when performance indicates fouling. When opening the unit, keep plates aligned and record the closing dimension and plate sequence exactly as specified by Alfa Laval. For class or statutory survey, confirm pressure-boundary condition, leakage history, isolation arrangements and any required test records; refer to the manufacturer documentation for the exact figure and service procedure.
Spare Parts: Keep the correct gasket set, representative plate or cassette spares where the vessel's criticality justifies them, connection seals and the maker-specified service consumables. For remote trading, also consider frame-bolt service items and any dedicated cleaning or gasket-handling materials required by the installed configuration.
Use Cases: Used where compact vacuum condensation is required, including evaporation and process-recovery plants on specialised vessels, offshore or floating production units, and other marine process installations. It is most relevant where condensate recovery, limited machinery-space footprint or accessible plate cleaning are important.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. AlfaCond-600-120P
AlfaCond-600-120P
Model number
AlfaCond-600-120P
Plate count (min)
20 plates
Plate count (max)
350 plates
Max flow rate
266.0 m3/h
Design pressure
16 bar
Application
vacuum condenser
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
218 plates
Effective flow rate at duty point
266.0 m3/h
Configuration
120P configuration
Common Failures & Inspection Points
  • Loss of vacuum-side performance from fouling or deposits, noticed as reduced condensing capacity or higher process pressure
  • Gasket deterioration or incorrect plate-pack compression, causing external leakage or cross-contamination indications
  • Plate or weld damage from corrosion, fatigue or unsuitable media, indicated by mixing of circuits or unexplained level changes
  • Air ingress at connections or seals, causing unstable vacuum and reduced condenser performance
  • Cooling-water restriction from fouling or blockage, seen as increased temperature approach and reduced heat rejection
Service: Trend inlet and outlet temperatures, pressure drop and vacuum performance against the vessel or plant baseline. Inspect the frame, plate-pack edges, nozzles and gaskets for leakage, corrosion and distortion, and clean the heat-transfer surfaces when performance indicates fouling. When opening the unit, keep plates aligned and record the closing dimension and plate sequence exactly as specified by Alfa Laval. For class or statutory survey, confirm pressure-boundary condition, leakage history, isolation arrangements and any required test records; refer to the manufacturer documentation for the exact figure and service procedure.
Spare Parts: Keep the correct gasket set, representative plate or cassette spares where the vessel's criticality justifies them, connection seals and the maker-specified service consumables. For remote trading, also consider frame-bolt service items and any dedicated cleaning or gasket-handling materials required by the installed configuration.
Use Cases: Used where compact vacuum condensation is required, including evaporation and process-recovery plants on specialised vessels, offshore or floating production units, and other marine process installations. It is most relevant where condensate recovery, limited machinery-space footprint or accessible plate cleaning are important.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. AlfaCond-600-150P
AlfaCond-600-150P
Model number
AlfaCond-600-150P
Plate count (min)
20 plates
Plate count (max)
350 plates
Max flow rate
323.0 m3/h
Design pressure
16 bar
Application
vacuum condenser
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
267 plates
Effective flow rate at duty point
323.0 m3/h
Configuration
150P configuration
Common Failures & Inspection Points
  • Loss of vacuum-side performance from fouling or deposits, noticed as reduced condensing capacity or higher process pressure
  • Gasket deterioration or incorrect plate-pack compression, causing external leakage or cross-contamination indications
  • Plate or weld damage from corrosion, fatigue or unsuitable media, indicated by mixing of circuits or unexplained level changes
  • Air ingress at connections or seals, causing unstable vacuum and reduced condenser performance
  • Cooling-water restriction from fouling or blockage, seen as increased temperature approach and reduced heat rejection
Service: Trend inlet and outlet temperatures, pressure drop and vacuum performance against the vessel or plant baseline. Inspect the frame, plate-pack edges, nozzles and gaskets for leakage, corrosion and distortion, and clean the heat-transfer surfaces when performance indicates fouling. When opening the unit, keep plates aligned and record the closing dimension and plate sequence exactly as specified by Alfa Laval. For class or statutory survey, confirm pressure-boundary condition, leakage history, isolation arrangements and any required test records; refer to the manufacturer documentation for the exact figure and service procedure.
Spare Parts: Keep the correct gasket set, representative plate or cassette spares where the vessel's criticality justifies them, connection seals and the maker-specified service consumables. For remote trading, also consider frame-bolt service items and any dedicated cleaning or gasket-handling materials required by the installed configuration.
Use Cases: Used where compact vacuum condensation is required, including evaporation and process-recovery plants on specialised vessels, offshore or floating production units, and other marine process installations. It is most relevant where condensate recovery, limited machinery-space footprint or accessible plate cleaning are important.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. AlfaCond-600-180P
AlfaCond-600-180P
Model number
AlfaCond-600-180P
Plate count (min)
20 plates
Plate count (max)
350 plates
Max flow rate
361.0 m3/h
Design pressure
16 bar
Application
vacuum condenser
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
317 plates
Effective flow rate at duty point
361.0 m3/h
Configuration
180P configuration
Common Failures & Inspection Points
  • Loss of vacuum-side performance from fouling or deposits, noticed as reduced condensing capacity or higher process pressure
  • Gasket deterioration or incorrect plate-pack compression, causing external leakage or cross-contamination indications
  • Plate or weld damage from corrosion, fatigue or unsuitable media, indicated by mixing of circuits or unexplained level changes
  • Air ingress at connections or seals, causing unstable vacuum and reduced condenser performance
  • Cooling-water restriction from fouling or blockage, seen as increased temperature approach and reduced heat rejection
Service: Trend inlet and outlet temperatures, pressure drop and vacuum performance against the vessel or plant baseline. Inspect the frame, plate-pack edges, nozzles and gaskets for leakage, corrosion and distortion, and clean the heat-transfer surfaces when performance indicates fouling. When opening the unit, keep plates aligned and record the closing dimension and plate sequence exactly as specified by Alfa Laval. For class or statutory survey, confirm pressure-boundary condition, leakage history, isolation arrangements and any required test records; refer to the manufacturer documentation for the exact figure and service procedure.
Spare Parts: Keep the correct gasket set, representative plate or cassette spares where the vessel's criticality justifies them, connection seals and the maker-specified service consumables. For remote trading, also consider frame-bolt service items and any dedicated cleaning or gasket-handling materials required by the installed configuration.
Use Cases: Used where compact vacuum condensation is required, including evaporation and process-recovery plants on specialised vessels, offshore or floating production units, and other marine process installations. It is most relevant where condensate recovery, limited machinery-space footprint or accessible plate cleaning are important.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. AlfaCond-600-MAX
AlfaCond-600-MAX
Model number
AlfaCond-600-MAX
Plate count (min)
20 plates
Plate count (max)
350 plates
Max flow rate
380.0 m3/h
Design pressure
16 bar
Application
vacuum condenser
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
350 plates
Effective flow rate at duty point
380.0 m3/h
Configuration
MAX configuration
Common Failures & Inspection Points
  • Loss of vacuum-side performance from fouling or deposits, noticed as reduced condensing capacity or higher process pressure
  • Gasket deterioration or incorrect plate-pack compression, causing external leakage or cross-contamination indications
  • Plate or weld damage from corrosion, fatigue or unsuitable media, indicated by mixing of circuits or unexplained level changes
  • Air ingress at connections or seals, causing unstable vacuum and reduced condenser performance
  • Cooling-water restriction from fouling or blockage, seen as increased temperature approach and reduced heat rejection
Service: Trend inlet and outlet temperatures, pressure drop and vacuum performance against the vessel or plant baseline. Inspect the frame, plate-pack edges, nozzles and gaskets for leakage, corrosion and distortion, and clean the heat-transfer surfaces when performance indicates fouling. When opening the unit, keep plates aligned and record the closing dimension and plate sequence exactly as specified by Alfa Laval. For class or statutory survey, confirm pressure-boundary condition, leakage history, isolation arrangements and any required test records; refer to the manufacturer documentation for the exact figure and service procedure.
Spare Parts: Keep the correct gasket set, representative plate or cassette spares where the vessel's criticality justifies them, connection seals and the maker-specified service consumables. For remote trading, also consider frame-bolt service items and any dedicated cleaning or gasket-handling materials required by the installed configuration.
Use Cases: Used where compact vacuum condensation is required, including evaporation and process-recovery plants on specialised vessels, offshore or floating production units, and other marine process installations. It is most relevant where condensate recovery, limited machinery-space footprint or accessible plate cleaning are important.
Manufacturer Datasheet
Datasheet
AlfaCond-800
Model number
AlfaCond-800
Plate count (min)
30 plates
Plate count (max)
400 plates
Max flow rate
550.0 m3/h
Design pressure
16 bar
Application
vacuum condenser, large
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Common Failures & Inspection Points
  • Loss of vacuum-side performance from fouling or deposits, noticed as reduced condensing capacity or higher process pressure
  • Gasket deterioration or incorrect plate-pack compression, causing external leakage or cross-contamination indications
  • Plate or weld damage from corrosion, fatigue or unsuitable media, indicated by mixing of circuits or unexplained level changes
  • Air ingress at connections or seals, causing unstable vacuum and reduced condenser performance
  • Cooling-water restriction from fouling or blockage, seen as increased temperature approach and reduced heat rejection
Service: Trend inlet and outlet temperatures, pressure drop and vacuum performance against the vessel or plant baseline. Inspect the frame, plate-pack edges, nozzles and gaskets for leakage, corrosion and distortion, and clean the heat-transfer surfaces when performance indicates fouling. When opening the unit, keep plates aligned and record the closing dimension and plate sequence exactly as specified by Alfa Laval. For class or statutory survey, confirm pressure-boundary condition, leakage history, isolation arrangements and any required test records; refer to the manufacturer documentation for the exact figure and service procedure.
Spare Parts: Keep the correct gasket set, representative plate or cassette spares where the vessel's criticality justifies them, connection seals and the maker-specified service consumables. For remote trading, also consider frame-bolt service items and any dedicated cleaning or gasket-handling materials required by the installed configuration.
Use Cases: Used where compact vacuum condensation is required, including evaporation and process-recovery plants on specialised vessels, offshore or floating production units, and other marine process installations. It is most relevant where condensate recovery, limited machinery-space footprint or accessible plate cleaning are important.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. AlfaCond-800-30P
AlfaCond-800-30P
Model number
AlfaCond-800-30P
Plate count (min)
30 plates
Plate count (max)
400 plates
Max flow rate
110.0 m3/h
Design pressure
16 bar
Application
vacuum condenser, large
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
85 plates
Effective flow rate at duty point
110.0 m3/h
Configuration
30P configuration
Common Failures & Inspection Points
  • Loss of vacuum-side performance from fouling or deposits, noticed as reduced condensing capacity or higher process pressure
  • Gasket deterioration or incorrect plate-pack compression, causing external leakage or cross-contamination indications
  • Plate or weld damage from corrosion, fatigue or unsuitable media, indicated by mixing of circuits or unexplained level changes
  • Air ingress at connections or seals, causing unstable vacuum and reduced condenser performance
  • Cooling-water restriction from fouling or blockage, seen as increased temperature approach and reduced heat rejection
Service: Trend inlet and outlet temperatures, pressure drop and vacuum performance against the vessel or plant baseline. Inspect the frame, plate-pack edges, nozzles and gaskets for leakage, corrosion and distortion, and clean the heat-transfer surfaces when performance indicates fouling. When opening the unit, keep plates aligned and record the closing dimension and plate sequence exactly as specified by Alfa Laval. For class or statutory survey, confirm pressure-boundary condition, leakage history, isolation arrangements and any required test records; refer to the manufacturer documentation for the exact figure and service procedure.
Spare Parts: Keep the correct gasket set, representative plate or cassette spares where the vessel's criticality justifies them, connection seals and the maker-specified service consumables. For remote trading, also consider frame-bolt service items and any dedicated cleaning or gasket-handling materials required by the installed configuration.
Use Cases: Used where compact vacuum condensation is required, including evaporation and process-recovery plants on specialised vessels, offshore or floating production units, and other marine process installations. It is most relevant where condensate recovery, limited machinery-space footprint or accessible plate cleaning are important.
Manufacturer Datasheet
Datasheet
AlfaCond-800-60P
Model number
AlfaCond-800-60P
Plate count (min)
30 plates
Plate count (max)
400 plates
Max flow rate
209.0 m3/h
Design pressure
16 bar
Application
vacuum condenser, large
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
141 plates
Effective flow rate at duty point
209.0 m3/h
Configuration
60P configuration
Common Failures & Inspection Points
  • Loss of vacuum-side performance from fouling or deposits, noticed as reduced condensing capacity or higher process pressure
  • Gasket deterioration or incorrect plate-pack compression, causing external leakage or cross-contamination indications
  • Plate or weld damage from corrosion, fatigue or unsuitable media, indicated by mixing of circuits or unexplained level changes
  • Air ingress at connections or seals, causing unstable vacuum and reduced condenser performance
  • Cooling-water restriction from fouling or blockage, seen as increased temperature approach and reduced heat rejection
Service: Trend inlet and outlet temperatures, pressure drop and vacuum performance against the vessel or plant baseline. Inspect the frame, plate-pack edges, nozzles and gaskets for leakage, corrosion and distortion, and clean the heat-transfer surfaces when performance indicates fouling. When opening the unit, keep plates aligned and record the closing dimension and plate sequence exactly as specified by Alfa Laval. For class or statutory survey, confirm pressure-boundary condition, leakage history, isolation arrangements and any required test records; refer to the manufacturer documentation for the exact figure and service procedure.
Spare Parts: Keep the correct gasket set, representative plate or cassette spares where the vessel's criticality justifies them, connection seals and the maker-specified service consumables. For remote trading, also consider frame-bolt service items and any dedicated cleaning or gasket-handling materials required by the installed configuration.
Use Cases: Used where compact vacuum condensation is required, including evaporation and process-recovery plants on specialised vessels, offshore or floating production units, and other marine process installations. It is most relevant where condensate recovery, limited machinery-space footprint or accessible plate cleaning are important.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. AlfaCond-800-90P
AlfaCond-800-90P
Model number
AlfaCond-800-90P
Plate count (min)
30 plates
Plate count (max)
400 plates
Max flow rate
302.5 m3/h
Design pressure
16 bar
Application
vacuum condenser, large
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
196 plates
Effective flow rate at duty point
302.5 m3/h
Configuration
90P configuration
Common Failures & Inspection Points
  • Loss of vacuum-side performance from fouling or deposits, noticed as reduced condensing capacity or higher process pressure
  • Gasket deterioration or incorrect plate-pack compression, causing external leakage or cross-contamination indications
  • Plate or weld damage from corrosion, fatigue or unsuitable media, indicated by mixing of circuits or unexplained level changes
  • Air ingress at connections or seals, causing unstable vacuum and reduced condenser performance
  • Cooling-water restriction from fouling or blockage, seen as increased temperature approach and reduced heat rejection
Service: Trend inlet and outlet temperatures, pressure drop and vacuum performance against the vessel or plant baseline. Inspect the frame, plate-pack edges, nozzles and gaskets for leakage, corrosion and distortion, and clean the heat-transfer surfaces when performance indicates fouling. When opening the unit, keep plates aligned and record the closing dimension and plate sequence exactly as specified by Alfa Laval. For class or statutory survey, confirm pressure-boundary condition, leakage history, isolation arrangements and any required test records; refer to the manufacturer documentation for the exact figure and service procedure.
Spare Parts: Keep the correct gasket set, representative plate or cassette spares where the vessel's criticality justifies them, connection seals and the maker-specified service consumables. For remote trading, also consider frame-bolt service items and any dedicated cleaning or gasket-handling materials required by the installed configuration.
Use Cases: Used where compact vacuum condensation is required, including evaporation and process-recovery plants on specialised vessels, offshore or floating production units, and other marine process installations. It is most relevant where condensate recovery, limited machinery-space footprint or accessible plate cleaning are important.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. AlfaCond-800-120P
AlfaCond-800-120P
Model number
AlfaCond-800-120P
Plate count (min)
30 plates
Plate count (max)
400 plates
Max flow rate
385.0 m3/h
Design pressure
16 bar
Application
vacuum condenser, large
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
252 plates
Effective flow rate at duty point
385.0 m3/h
Configuration
120P configuration
Common Failures & Inspection Points
  • Loss of vacuum-side performance from fouling or deposits, noticed as reduced condensing capacity or higher process pressure
  • Gasket deterioration or incorrect plate-pack compression, causing external leakage or cross-contamination indications
  • Plate or weld damage from corrosion, fatigue or unsuitable media, indicated by mixing of circuits or unexplained level changes
  • Air ingress at connections or seals, causing unstable vacuum and reduced condenser performance
  • Cooling-water restriction from fouling or blockage, seen as increased temperature approach and reduced heat rejection
Service: Trend inlet and outlet temperatures, pressure drop and vacuum performance against the vessel or plant baseline. Inspect the frame, plate-pack edges, nozzles and gaskets for leakage, corrosion and distortion, and clean the heat-transfer surfaces when performance indicates fouling. When opening the unit, keep plates aligned and record the closing dimension and plate sequence exactly as specified by Alfa Laval. For class or statutory survey, confirm pressure-boundary condition, leakage history, isolation arrangements and any required test records; refer to the manufacturer documentation for the exact figure and service procedure.
Spare Parts: Keep the correct gasket set, representative plate or cassette spares where the vessel's criticality justifies them, connection seals and the maker-specified service consumables. For remote trading, also consider frame-bolt service items and any dedicated cleaning or gasket-handling materials required by the installed configuration.
Use Cases: Used where compact vacuum condensation is required, including evaporation and process-recovery plants on specialised vessels, offshore or floating production units, and other marine process installations. It is most relevant where condensate recovery, limited machinery-space footprint or accessible plate cleaning are important.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. AlfaCond-800-150P
AlfaCond-800-150P
Model number
AlfaCond-800-150P
Plate count (min)
30 plates
Plate count (max)
400 plates
Max flow rate
467.5 m3/h
Design pressure
16 bar
Application
vacuum condenser, large
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
307 plates
Effective flow rate at duty point
467.5 m3/h
Configuration
150P configuration
Common Failures & Inspection Points
  • Loss of vacuum-side performance from fouling or deposits, noticed as reduced condensing capacity or higher process pressure
  • Gasket deterioration or incorrect plate-pack compression, causing external leakage or cross-contamination indications
  • Plate or weld damage from corrosion, fatigue or unsuitable media, indicated by mixing of circuits or unexplained level changes
  • Air ingress at connections or seals, causing unstable vacuum and reduced condenser performance
  • Cooling-water restriction from fouling or blockage, seen as increased temperature approach and reduced heat rejection
Service: Trend inlet and outlet temperatures, pressure drop and vacuum performance against the vessel or plant baseline. Inspect the frame, plate-pack edges, nozzles and gaskets for leakage, corrosion and distortion, and clean the heat-transfer surfaces when performance indicates fouling. When opening the unit, keep plates aligned and record the closing dimension and plate sequence exactly as specified by Alfa Laval. For class or statutory survey, confirm pressure-boundary condition, leakage history, isolation arrangements and any required test records; refer to the manufacturer documentation for the exact figure and service procedure.
Spare Parts: Keep the correct gasket set, representative plate or cassette spares where the vessel's criticality justifies them, connection seals and the maker-specified service consumables. For remote trading, also consider frame-bolt service items and any dedicated cleaning or gasket-handling materials required by the installed configuration.
Use Cases: Used where compact vacuum condensation is required, including evaporation and process-recovery plants on specialised vessels, offshore or floating production units, and other marine process installations. It is most relevant where condensate recovery, limited machinery-space footprint or accessible plate cleaning are important.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. AlfaCond-800-180P
AlfaCond-800-180P
Model number
AlfaCond-800-180P
Plate count (min)
30 plates
Plate count (max)
400 plates
Max flow rate
522.5 m3/h
Design pressure
16 bar
Application
vacuum condenser, large
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
363 plates
Effective flow rate at duty point
522.5 m3/h
Configuration
180P configuration
Common Failures & Inspection Points
  • Loss of vacuum-side performance from fouling or deposits, noticed as reduced condensing capacity or higher process pressure
  • Gasket deterioration or incorrect plate-pack compression, causing external leakage or cross-contamination indications
  • Plate or weld damage from corrosion, fatigue or unsuitable media, indicated by mixing of circuits or unexplained level changes
  • Air ingress at connections or seals, causing unstable vacuum and reduced condenser performance
  • Cooling-water restriction from fouling or blockage, seen as increased temperature approach and reduced heat rejection
Service: Trend inlet and outlet temperatures, pressure drop and vacuum performance against the vessel or plant baseline. Inspect the frame, plate-pack edges, nozzles and gaskets for leakage, corrosion and distortion, and clean the heat-transfer surfaces when performance indicates fouling. When opening the unit, keep plates aligned and record the closing dimension and plate sequence exactly as specified by Alfa Laval. For class or statutory survey, confirm pressure-boundary condition, leakage history, isolation arrangements and any required test records; refer to the manufacturer documentation for the exact figure and service procedure.
Spare Parts: Keep the correct gasket set, representative plate or cassette spares where the vessel's criticality justifies them, connection seals and the maker-specified service consumables. For remote trading, also consider frame-bolt service items and any dedicated cleaning or gasket-handling materials required by the installed configuration.
Use Cases: Used where compact vacuum condensation is required, including evaporation and process-recovery plants on specialised vessels, offshore or floating production units, and other marine process installations. It is most relevant where condensate recovery, limited machinery-space footprint or accessible plate cleaning are important.
Manufacturer Datasheet
Datasheet
AlfaCond-800-MAX
Model number
AlfaCond-800-MAX
Plate count (min)
30 plates
Plate count (max)
400 plates
Max flow rate
550.0 m3/h
Design pressure
16 bar
Application
vacuum condenser, large
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
400 plates
Effective flow rate at duty point
550.0 m3/h
Configuration
MAX configuration
Common Failures & Inspection Points
  • Loss of vacuum-side performance from fouling or deposits, noticed as reduced condensing capacity or higher process pressure
  • Gasket deterioration or incorrect plate-pack compression, causing external leakage or cross-contamination indications
  • Plate or weld damage from corrosion, fatigue or unsuitable media, indicated by mixing of circuits or unexplained level changes
  • Air ingress at connections or seals, causing unstable vacuum and reduced condenser performance
  • Cooling-water restriction from fouling or blockage, seen as increased temperature approach and reduced heat rejection
Service: Trend inlet and outlet temperatures, pressure drop and vacuum performance against the vessel or plant baseline. Inspect the frame, plate-pack edges, nozzles and gaskets for leakage, corrosion and distortion, and clean the heat-transfer surfaces when performance indicates fouling. When opening the unit, keep plates aligned and record the closing dimension and plate sequence exactly as specified by Alfa Laval. For class or statutory survey, confirm pressure-boundary condition, leakage history, isolation arrangements and any required test records; refer to the manufacturer documentation for the exact figure and service procedure.
Spare Parts: Keep the correct gasket set, representative plate or cassette spares where the vessel's criticality justifies them, connection seals and the maker-specified service consumables. For remote trading, also consider frame-bolt service items and any dedicated cleaning or gasket-handling materials required by the installed configuration.
Use Cases: Used where compact vacuum condensation is required, including evaporation and process-recovery plants on specialised vessels, offshore or floating production units, and other marine process installations. It is most relevant where condensate recovery, limited machinery-space footprint or accessible plate cleaning are important.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. AlfaVap-300
AlfaVap-300
Model number
AlfaVap-300
Plate count (min)
20 plates
Plate count (max)
250 plates
Max flow rate
180.0 m3/h
Design pressure
16 bar
Application
vacuum evaporator
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Common Failures & Inspection Points
  • Product-side fouling or scaling, noticed as falling evaporation rate, rising temperature difference or reduced throughput
  • Gasket degradation from age, chemicals or incorrect assembly, causing external leakage or process contamination
  • Plate-cassette damage or weld leakage, indicated by cross-contamination between steam/condensate and product circuits
  • Poor distribution or restricted feed flow, causing unstable evaporation, local overheating or vibration
  • Steam-side contamination or condensate drainage problems, seen as reduced heating performance and erratic process temperatures
Service: Trend feed, vapour, condensate and heating-side temperatures and pressure losses against the commissioning baseline. Inspect for gasket leakage, plate-pack alignment, fouling and evidence of cross-contamination, and use CIP or mechanical cleaning methods compatible with the installed materials. After opening, restore the plate sequence and tightening condition exactly as specified by the manufacturer. Survey attention should include pressure-boundary integrity, isolation, leak history and evidence that cleaning chemicals and process media remain compatible; refer to the manufacturer documentation for the exact figure.
Spare Parts: Carry the correct gasket set, selected plate-cassette spares for critical installations, connection seals and maker-approved service consumables. Where the evaporator is mission-critical, stock items needed to restore feed distribution and condensate sealing without waiting for shore supply.
Use Cases: Applied to evaporation or reboiling duties on specialised ships, offshore units, floating production plants and marine process skids. Typical service involves concentrating a liquid or recovering heat where compact size, low hold-up volume and access for cleaning are valuable.
Manufacturer Datasheet
Datasheet
AlfaVap-300-30P
Model number
AlfaVap-300-30P
Plate count (min)
20 plates
Plate count (max)
250 plates
Max flow rate
36.0 m3/h
Design pressure
16 bar
Application
vacuum evaporator
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
54 plates
Effective flow rate at duty point
36.0 m3/h
Configuration
30P configuration
Common Failures & Inspection Points
  • Product-side fouling or scaling, noticed as falling evaporation rate, rising temperature difference or reduced throughput
  • Gasket degradation from age, chemicals or incorrect assembly, causing external leakage or process contamination
  • Plate-cassette damage or weld leakage, indicated by cross-contamination between steam/condensate and product circuits
  • Poor distribution or restricted feed flow, causing unstable evaporation, local overheating or vibration
  • Steam-side contamination or condensate drainage problems, seen as reduced heating performance and erratic process temperatures
Service: Trend feed, vapour, condensate and heating-side temperatures and pressure losses against the commissioning baseline. Inspect for gasket leakage, plate-pack alignment, fouling and evidence of cross-contamination, and use CIP or mechanical cleaning methods compatible with the installed materials. After opening, restore the plate sequence and tightening condition exactly as specified by the manufacturer. Survey attention should include pressure-boundary integrity, isolation, leak history and evidence that cleaning chemicals and process media remain compatible; refer to the manufacturer documentation for the exact figure.
Spare Parts: Carry the correct gasket set, selected plate-cassette spares for critical installations, connection seals and maker-approved service consumables. Where the evaporator is mission-critical, stock items needed to restore feed distribution and condensate sealing without waiting for shore supply.
Use Cases: Applied to evaporation or reboiling duties on specialised ships, offshore units, floating production plants and marine process skids. Typical service involves concentrating a liquid or recovering heat where compact size, low hold-up volume and access for cleaning are valuable.
Manufacturer Datasheet
Datasheet
AlfaVap-300-60P
Model number
AlfaVap-300-60P
Plate count (min)
20 plates
Plate count (max)
250 plates
Max flow rate
68.4 m3/h
Design pressure
16 bar
Application
vacuum evaporator
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
89 plates
Effective flow rate at duty point
68.4 m3/h
Configuration
60P configuration
Common Failures & Inspection Points
  • Product-side fouling or scaling, noticed as falling evaporation rate, rising temperature difference or reduced throughput
  • Gasket degradation from age, chemicals or incorrect assembly, causing external leakage or process contamination
  • Plate-cassette damage or weld leakage, indicated by cross-contamination between steam/condensate and product circuits
  • Poor distribution or restricted feed flow, causing unstable evaporation, local overheating or vibration
  • Steam-side contamination or condensate drainage problems, seen as reduced heating performance and erratic process temperatures
Service: Trend feed, vapour, condensate and heating-side temperatures and pressure losses against the commissioning baseline. Inspect for gasket leakage, plate-pack alignment, fouling and evidence of cross-contamination, and use CIP or mechanical cleaning methods compatible with the installed materials. After opening, restore the plate sequence and tightening condition exactly as specified by the manufacturer. Survey attention should include pressure-boundary integrity, isolation, leak history and evidence that cleaning chemicals and process media remain compatible; refer to the manufacturer documentation for the exact figure.
Spare Parts: Carry the correct gasket set, selected plate-cassette spares for critical installations, connection seals and maker-approved service consumables. Where the evaporator is mission-critical, stock items needed to restore feed distribution and condensate sealing without waiting for shore supply.
Use Cases: Applied to evaporation or reboiling duties on specialised ships, offshore units, floating production plants and marine process skids. Typical service involves concentrating a liquid or recovering heat where compact size, low hold-up volume and access for cleaning are valuable.
Manufacturer Datasheet
Datasheet
AlfaVap-300-90P
Model number
AlfaVap-300-90P
Plate count (min)
20 plates
Plate count (max)
250 plates
Max flow rate
99.0 m3/h
Design pressure
16 bar
Application
vacuum evaporator
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
123 plates
Effective flow rate at duty point
99.0 m3/h
Configuration
90P configuration
Common Failures & Inspection Points
  • Product-side fouling or scaling, noticed as falling evaporation rate, rising temperature difference or reduced throughput
  • Gasket degradation from age, chemicals or incorrect assembly, causing external leakage or process contamination
  • Plate-cassette damage or weld leakage, indicated by cross-contamination between steam/condensate and product circuits
  • Poor distribution or restricted feed flow, causing unstable evaporation, local overheating or vibration
  • Steam-side contamination or condensate drainage problems, seen as reduced heating performance and erratic process temperatures
Service: Trend feed, vapour, condensate and heating-side temperatures and pressure losses against the commissioning baseline. Inspect for gasket leakage, plate-pack alignment, fouling and evidence of cross-contamination, and use CIP or mechanical cleaning methods compatible with the installed materials. After opening, restore the plate sequence and tightening condition exactly as specified by the manufacturer. Survey attention should include pressure-boundary integrity, isolation, leak history and evidence that cleaning chemicals and process media remain compatible; refer to the manufacturer documentation for the exact figure.
Spare Parts: Carry the correct gasket set, selected plate-cassette spares for critical installations, connection seals and maker-approved service consumables. Where the evaporator is mission-critical, stock items needed to restore feed distribution and condensate sealing without waiting for shore supply.
Use Cases: Applied to evaporation or reboiling duties on specialised ships, offshore units, floating production plants and marine process skids. Typical service involves concentrating a liquid or recovering heat where compact size, low hold-up volume and access for cleaning are valuable.
Manufacturer Datasheet
Datasheet
AlfaVap-300-120P
Model number
AlfaVap-300-120P
Plate count (min)
20 plates
Plate count (max)
250 plates
Max flow rate
126.0 m3/h
Design pressure
16 bar
Application
vacuum evaporator
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
158 plates
Effective flow rate at duty point
126.0 m3/h
Configuration
120P configuration
Common Failures & Inspection Points
  • Product-side fouling or scaling, noticed as falling evaporation rate, rising temperature difference or reduced throughput
  • Gasket degradation from age, chemicals or incorrect assembly, causing external leakage or process contamination
  • Plate-cassette damage or weld leakage, indicated by cross-contamination between steam/condensate and product circuits
  • Poor distribution or restricted feed flow, causing unstable evaporation, local overheating or vibration
  • Steam-side contamination or condensate drainage problems, seen as reduced heating performance and erratic process temperatures
Service: Trend feed, vapour, condensate and heating-side temperatures and pressure losses against the commissioning baseline. Inspect for gasket leakage, plate-pack alignment, fouling and evidence of cross-contamination, and use CIP or mechanical cleaning methods compatible with the installed materials. After opening, restore the plate sequence and tightening condition exactly as specified by the manufacturer. Survey attention should include pressure-boundary integrity, isolation, leak history and evidence that cleaning chemicals and process media remain compatible; refer to the manufacturer documentation for the exact figure.
Spare Parts: Carry the correct gasket set, selected plate-cassette spares for critical installations, connection seals and maker-approved service consumables. Where the evaporator is mission-critical, stock items needed to restore feed distribution and condensate sealing without waiting for shore supply.
Use Cases: Applied to evaporation or reboiling duties on specialised ships, offshore units, floating production plants and marine process skids. Typical service involves concentrating a liquid or recovering heat where compact size, low hold-up volume and access for cleaning are valuable.
Manufacturer Datasheet
Datasheet
AlfaVap-300-150P
Model number
AlfaVap-300-150P
Plate count (min)
20 plates
Plate count (max)
250 plates
Max flow rate
153.0 m3/h
Design pressure
16 bar
Application
vacuum evaporator
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
192 plates
Effective flow rate at duty point
153.0 m3/h
Configuration
150P configuration
Common Failures & Inspection Points
  • Product-side fouling or scaling, noticed as falling evaporation rate, rising temperature difference or reduced throughput
  • Gasket degradation from age, chemicals or incorrect assembly, causing external leakage or process contamination
  • Plate-cassette damage or weld leakage, indicated by cross-contamination between steam/condensate and product circuits
  • Poor distribution or restricted feed flow, causing unstable evaporation, local overheating or vibration
  • Steam-side contamination or condensate drainage problems, seen as reduced heating performance and erratic process temperatures
Service: Trend feed, vapour, condensate and heating-side temperatures and pressure losses against the commissioning baseline. Inspect for gasket leakage, plate-pack alignment, fouling and evidence of cross-contamination, and use CIP or mechanical cleaning methods compatible with the installed materials. After opening, restore the plate sequence and tightening condition exactly as specified by the manufacturer. Survey attention should include pressure-boundary integrity, isolation, leak history and evidence that cleaning chemicals and process media remain compatible; refer to the manufacturer documentation for the exact figure.
Spare Parts: Carry the correct gasket set, selected plate-cassette spares for critical installations, connection seals and maker-approved service consumables. Where the evaporator is mission-critical, stock items needed to restore feed distribution and condensate sealing without waiting for shore supply.
Use Cases: Applied to evaporation or reboiling duties on specialised ships, offshore units, floating production plants and marine process skids. Typical service involves concentrating a liquid or recovering heat where compact size, low hold-up volume and access for cleaning are valuable.
Manufacturer Datasheet
Datasheet
AlfaVap-300-180P
Model number
AlfaVap-300-180P
Plate count (min)
20 plates
Plate count (max)
250 plates
Max flow rate
171.0 m3/h
Design pressure
16 bar
Application
vacuum evaporator
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
227 plates
Effective flow rate at duty point
171.0 m3/h
Configuration
180P configuration
Common Failures & Inspection Points
  • Product-side fouling or scaling, noticed as falling evaporation rate, rising temperature difference or reduced throughput
  • Gasket degradation from age, chemicals or incorrect assembly, causing external leakage or process contamination
  • Plate-cassette damage or weld leakage, indicated by cross-contamination between steam/condensate and product circuits
  • Poor distribution or restricted feed flow, causing unstable evaporation, local overheating or vibration
  • Steam-side contamination or condensate drainage problems, seen as reduced heating performance and erratic process temperatures
Service: Trend feed, vapour, condensate and heating-side temperatures and pressure losses against the commissioning baseline. Inspect for gasket leakage, plate-pack alignment, fouling and evidence of cross-contamination, and use CIP or mechanical cleaning methods compatible with the installed materials. After opening, restore the plate sequence and tightening condition exactly as specified by the manufacturer. Survey attention should include pressure-boundary integrity, isolation, leak history and evidence that cleaning chemicals and process media remain compatible; refer to the manufacturer documentation for the exact figure.
Spare Parts: Carry the correct gasket set, selected plate-cassette spares for critical installations, connection seals and maker-approved service consumables. Where the evaporator is mission-critical, stock items needed to restore feed distribution and condensate sealing without waiting for shore supply.
Use Cases: Applied to evaporation or reboiling duties on specialised ships, offshore units, floating production plants and marine process skids. Typical service involves concentrating a liquid or recovering heat where compact size, low hold-up volume and access for cleaning are valuable.
Manufacturer Datasheet
Datasheet
AlfaVap-300-MAX
Model number
AlfaVap-300-MAX
Plate count (min)
20 plates
Plate count (max)
250 plates
Max flow rate
180.0 m3/h
Design pressure
16 bar
Application
vacuum evaporator
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
250 plates
Effective flow rate at duty point
180.0 m3/h
Configuration
MAX configuration
Common Failures & Inspection Points
  • Product-side fouling or scaling, noticed as falling evaporation rate, rising temperature difference or reduced throughput
  • Gasket degradation from age, chemicals or incorrect assembly, causing external leakage or process contamination
  • Plate-cassette damage or weld leakage, indicated by cross-contamination between steam/condensate and product circuits
  • Poor distribution or restricted feed flow, causing unstable evaporation, local overheating or vibration
  • Steam-side contamination or condensate drainage problems, seen as reduced heating performance and erratic process temperatures
Service: Trend feed, vapour, condensate and heating-side temperatures and pressure losses against the commissioning baseline. Inspect for gasket leakage, plate-pack alignment, fouling and evidence of cross-contamination, and use CIP or mechanical cleaning methods compatible with the installed materials. After opening, restore the plate sequence and tightening condition exactly as specified by the manufacturer. Survey attention should include pressure-boundary integrity, isolation, leak history and evidence that cleaning chemicals and process media remain compatible; refer to the manufacturer documentation for the exact figure.
Spare Parts: Carry the correct gasket set, selected plate-cassette spares for critical installations, connection seals and maker-approved service consumables. Where the evaporator is mission-critical, stock items needed to restore feed distribution and condensate sealing without waiting for shore supply.
Use Cases: Applied to evaporation or reboiling duties on specialised ships, offshore units, floating production plants and marine process skids. Typical service involves concentrating a liquid or recovering heat where compact size, low hold-up volume and access for cleaning are valuable.
Manufacturer Datasheet
Datasheet
AlfaVap-500
Model number
AlfaVap-500
Plate count (min)
20 plates
Plate count (max)
350 plates
Max flow rate
320.0 m3/h
Design pressure
16 bar
Application
vacuum evaporator
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Common Failures & Inspection Points
  • Product-side fouling or scaling, noticed as falling evaporation rate, rising temperature difference or reduced throughput
  • Gasket degradation from age, chemicals or incorrect assembly, causing external leakage or process contamination
  • Plate-cassette damage or weld leakage, indicated by cross-contamination between steam/condensate and product circuits
  • Poor distribution or restricted feed flow, causing unstable evaporation, local overheating or vibration
  • Steam-side contamination or condensate drainage problems, seen as reduced heating performance and erratic process temperatures
Service: Trend feed, vapour, condensate and heating-side temperatures and pressure losses against the commissioning baseline. Inspect for gasket leakage, plate-pack alignment, fouling and evidence of cross-contamination, and use CIP or mechanical cleaning methods compatible with the installed materials. After opening, restore the plate sequence and tightening condition exactly as specified by the manufacturer. Survey attention should include pressure-boundary integrity, isolation, leak history and evidence that cleaning chemicals and process media remain compatible; refer to the manufacturer documentation for the exact figure.
Spare Parts: Carry the correct gasket set, selected plate-cassette spares for critical installations, connection seals and maker-approved service consumables. Where the evaporator is mission-critical, stock items needed to restore feed distribution and condensate sealing without waiting for shore supply.
Use Cases: Applied to evaporation or reboiling duties on specialised ships, offshore units, floating production plants and marine process skids. Typical service involves concentrating a liquid or recovering heat where compact size, low hold-up volume and access for cleaning are valuable.
Manufacturer Datasheet
Datasheet
AlfaVap-500-30P
Model number
AlfaVap-500-30P
Plate count (min)
20 plates
Plate count (max)
350 plates
Max flow rate
64.0 m3/h
Design pressure
16 bar
Application
vacuum evaporator
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
69 plates
Effective flow rate at duty point
64.0 m3/h
Configuration
30P configuration
Common Failures & Inspection Points
  • Product-side fouling or scaling, noticed as falling evaporation rate, rising temperature difference or reduced throughput
  • Gasket degradation from age, chemicals or incorrect assembly, causing external leakage or process contamination
  • Plate-cassette damage or weld leakage, indicated by cross-contamination between steam/condensate and product circuits
  • Poor distribution or restricted feed flow, causing unstable evaporation, local overheating or vibration
  • Steam-side contamination or condensate drainage problems, seen as reduced heating performance and erratic process temperatures
Service: Trend feed, vapour, condensate and heating-side temperatures and pressure losses against the commissioning baseline. Inspect for gasket leakage, plate-pack alignment, fouling and evidence of cross-contamination, and use CIP or mechanical cleaning methods compatible with the installed materials. After opening, restore the plate sequence and tightening condition exactly as specified by the manufacturer. Survey attention should include pressure-boundary integrity, isolation, leak history and evidence that cleaning chemicals and process media remain compatible; refer to the manufacturer documentation for the exact figure.
Spare Parts: Carry the correct gasket set, selected plate-cassette spares for critical installations, connection seals and maker-approved service consumables. Where the evaporator is mission-critical, stock items needed to restore feed distribution and condensate sealing without waiting for shore supply.
Use Cases: Applied to evaporation or reboiling duties on specialised ships, offshore units, floating production plants and marine process skids. Typical service involves concentrating a liquid or recovering heat where compact size, low hold-up volume and access for cleaning are valuable.
Manufacturer Datasheet
Datasheet
AlfaVap-500-60P
Model number
AlfaVap-500-60P
Plate count (min)
20 plates
Plate count (max)
350 plates
Max flow rate
121.6 m3/h
Design pressure
16 bar
Application
vacuum evaporator
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
119 plates
Effective flow rate at duty point
121.6 m3/h
Configuration
60P configuration
Common Failures & Inspection Points
  • Product-side fouling or scaling, noticed as falling evaporation rate, rising temperature difference or reduced throughput
  • Gasket degradation from age, chemicals or incorrect assembly, causing external leakage or process contamination
  • Plate-cassette damage or weld leakage, indicated by cross-contamination between steam/condensate and product circuits
  • Poor distribution or restricted feed flow, causing unstable evaporation, local overheating or vibration
  • Steam-side contamination or condensate drainage problems, seen as reduced heating performance and erratic process temperatures
Service: Trend feed, vapour, condensate and heating-side temperatures and pressure losses against the commissioning baseline. Inspect for gasket leakage, plate-pack alignment, fouling and evidence of cross-contamination, and use CIP or mechanical cleaning methods compatible with the installed materials. After opening, restore the plate sequence and tightening condition exactly as specified by the manufacturer. Survey attention should include pressure-boundary integrity, isolation, leak history and evidence that cleaning chemicals and process media remain compatible; refer to the manufacturer documentation for the exact figure.
Spare Parts: Carry the correct gasket set, selected plate-cassette spares for critical installations, connection seals and maker-approved service consumables. Where the evaporator is mission-critical, stock items needed to restore feed distribution and condensate sealing without waiting for shore supply.
Use Cases: Applied to evaporation or reboiling duties on specialised ships, offshore units, floating production plants and marine process skids. Typical service involves concentrating a liquid or recovering heat where compact size, low hold-up volume and access for cleaning are valuable.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. AlfaVap-500-90P
AlfaVap-500-90P
Model number
AlfaVap-500-90P
Plate count (min)
20 plates
Plate count (max)
350 plates
Max flow rate
176.0 m3/h
Design pressure
16 bar
Application
vacuum evaporator
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
168 plates
Effective flow rate at duty point
176.0 m3/h
Configuration
90P configuration
Common Failures & Inspection Points
  • Product-side fouling or scaling, noticed as falling evaporation rate, rising temperature difference or reduced throughput
  • Gasket degradation from age, chemicals or incorrect assembly, causing external leakage or process contamination
  • Plate-cassette damage or weld leakage, indicated by cross-contamination between steam/condensate and product circuits
  • Poor distribution or restricted feed flow, causing unstable evaporation, local overheating or vibration
  • Steam-side contamination or condensate drainage problems, seen as reduced heating performance and erratic process temperatures
Service: Trend feed, vapour, condensate and heating-side temperatures and pressure losses against the commissioning baseline. Inspect for gasket leakage, plate-pack alignment, fouling and evidence of cross-contamination, and use CIP or mechanical cleaning methods compatible with the installed materials. After opening, restore the plate sequence and tightening condition exactly as specified by the manufacturer. Survey attention should include pressure-boundary integrity, isolation, leak history and evidence that cleaning chemicals and process media remain compatible; refer to the manufacturer documentation for the exact figure.
Spare Parts: Carry the correct gasket set, selected plate-cassette spares for critical installations, connection seals and maker-approved service consumables. Where the evaporator is mission-critical, stock items needed to restore feed distribution and condensate sealing without waiting for shore supply.
Use Cases: Applied to evaporation or reboiling duties on specialised ships, offshore units, floating production plants and marine process skids. Typical service involves concentrating a liquid or recovering heat where compact size, low hold-up volume and access for cleaning are valuable.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. AlfaVap-500-120P
AlfaVap-500-120P
Model number
AlfaVap-500-120P
Plate count (min)
20 plates
Plate count (max)
350 plates
Max flow rate
224.0 m3/h
Design pressure
16 bar
Application
vacuum evaporator
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
218 plates
Effective flow rate at duty point
224.0 m3/h
Configuration
120P configuration
Common Failures & Inspection Points
  • Product-side fouling or scaling, noticed as falling evaporation rate, rising temperature difference or reduced throughput
  • Gasket degradation from age, chemicals or incorrect assembly, causing external leakage or process contamination
  • Plate-cassette damage or weld leakage, indicated by cross-contamination between steam/condensate and product circuits
  • Poor distribution or restricted feed flow, causing unstable evaporation, local overheating or vibration
  • Steam-side contamination or condensate drainage problems, seen as reduced heating performance and erratic process temperatures
Service: Trend feed, vapour, condensate and heating-side temperatures and pressure losses against the commissioning baseline. Inspect for gasket leakage, plate-pack alignment, fouling and evidence of cross-contamination, and use CIP or mechanical cleaning methods compatible with the installed materials. After opening, restore the plate sequence and tightening condition exactly as specified by the manufacturer. Survey attention should include pressure-boundary integrity, isolation, leak history and evidence that cleaning chemicals and process media remain compatible; refer to the manufacturer documentation for the exact figure.
Spare Parts: Carry the correct gasket set, selected plate-cassette spares for critical installations, connection seals and maker-approved service consumables. Where the evaporator is mission-critical, stock items needed to restore feed distribution and condensate sealing without waiting for shore supply.
Use Cases: Applied to evaporation or reboiling duties on specialised ships, offshore units, floating production plants and marine process skids. Typical service involves concentrating a liquid or recovering heat where compact size, low hold-up volume and access for cleaning are valuable.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. AlfaVap-500-150P
AlfaVap-500-150P
Model number
AlfaVap-500-150P
Plate count (min)
20 plates
Plate count (max)
350 plates
Max flow rate
272.0 m3/h
Design pressure
16 bar
Application
vacuum evaporator
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
267 plates
Effective flow rate at duty point
272.0 m3/h
Configuration
150P configuration
Common Failures & Inspection Points
  • Product-side fouling or scaling, noticed as falling evaporation rate, rising temperature difference or reduced throughput
  • Gasket degradation from age, chemicals or incorrect assembly, causing external leakage or process contamination
  • Plate-cassette damage or weld leakage, indicated by cross-contamination between steam/condensate and product circuits
  • Poor distribution or restricted feed flow, causing unstable evaporation, local overheating or vibration
  • Steam-side contamination or condensate drainage problems, seen as reduced heating performance and erratic process temperatures
Service: Trend feed, vapour, condensate and heating-side temperatures and pressure losses against the commissioning baseline. Inspect for gasket leakage, plate-pack alignment, fouling and evidence of cross-contamination, and use CIP or mechanical cleaning methods compatible with the installed materials. After opening, restore the plate sequence and tightening condition exactly as specified by the manufacturer. Survey attention should include pressure-boundary integrity, isolation, leak history and evidence that cleaning chemicals and process media remain compatible; refer to the manufacturer documentation for the exact figure.
Spare Parts: Carry the correct gasket set, selected plate-cassette spares for critical installations, connection seals and maker-approved service consumables. Where the evaporator is mission-critical, stock items needed to restore feed distribution and condensate sealing without waiting for shore supply.
Use Cases: Applied to evaporation or reboiling duties on specialised ships, offshore units, floating production plants and marine process skids. Typical service involves concentrating a liquid or recovering heat where compact size, low hold-up volume and access for cleaning are valuable.
Manufacturer Datasheet
Datasheet
AlfaVap-500-180P
Model number
AlfaVap-500-180P
Plate count (min)
20 plates
Plate count (max)
350 plates
Max flow rate
304.0 m3/h
Design pressure
16 bar
Application
vacuum evaporator
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
317 plates
Effective flow rate at duty point
304.0 m3/h
Configuration
180P configuration
Common Failures & Inspection Points
  • Product-side fouling or scaling, noticed as falling evaporation rate, rising temperature difference or reduced throughput
  • Gasket degradation from age, chemicals or incorrect assembly, causing external leakage or process contamination
  • Plate-cassette damage or weld leakage, indicated by cross-contamination between steam/condensate and product circuits
  • Poor distribution or restricted feed flow, causing unstable evaporation, local overheating or vibration
  • Steam-side contamination or condensate drainage problems, seen as reduced heating performance and erratic process temperatures
Service: Trend feed, vapour, condensate and heating-side temperatures and pressure losses against the commissioning baseline. Inspect for gasket leakage, plate-pack alignment, fouling and evidence of cross-contamination, and use CIP or mechanical cleaning methods compatible with the installed materials. After opening, restore the plate sequence and tightening condition exactly as specified by the manufacturer. Survey attention should include pressure-boundary integrity, isolation, leak history and evidence that cleaning chemicals and process media remain compatible; refer to the manufacturer documentation for the exact figure.
Spare Parts: Carry the correct gasket set, selected plate-cassette spares for critical installations, connection seals and maker-approved service consumables. Where the evaporator is mission-critical, stock items needed to restore feed distribution and condensate sealing without waiting for shore supply.
Use Cases: Applied to evaporation or reboiling duties on specialised ships, offshore units, floating production plants and marine process skids. Typical service involves concentrating a liquid or recovering heat where compact size, low hold-up volume and access for cleaning are valuable.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. AlfaVap-500-MAX
AlfaVap-500-MAX
Model number
AlfaVap-500-MAX
Plate count (min)
20 plates
Plate count (max)
350 plates
Max flow rate
320.0 m3/h
Design pressure
16 bar
Application
vacuum evaporator
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
350 plates
Effective flow rate at duty point
320.0 m3/h
Configuration
MAX configuration
Common Failures & Inspection Points
  • Product-side fouling or scaling, noticed as falling evaporation rate, rising temperature difference or reduced throughput
  • Gasket degradation from age, chemicals or incorrect assembly, causing external leakage or process contamination
  • Plate-cassette damage or weld leakage, indicated by cross-contamination between steam/condensate and product circuits
  • Poor distribution or restricted feed flow, causing unstable evaporation, local overheating or vibration
  • Steam-side contamination or condensate drainage problems, seen as reduced heating performance and erratic process temperatures
Service: Trend feed, vapour, condensate and heating-side temperatures and pressure losses against the commissioning baseline. Inspect for gasket leakage, plate-pack alignment, fouling and evidence of cross-contamination, and use CIP or mechanical cleaning methods compatible with the installed materials. After opening, restore the plate sequence and tightening condition exactly as specified by the manufacturer. Survey attention should include pressure-boundary integrity, isolation, leak history and evidence that cleaning chemicals and process media remain compatible; refer to the manufacturer documentation for the exact figure.
Spare Parts: Carry the correct gasket set, selected plate-cassette spares for critical installations, connection seals and maker-approved service consumables. Where the evaporator is mission-critical, stock items needed to restore feed distribution and condensate sealing without waiting for shore supply.
Use Cases: Applied to evaporation or reboiling duties on specialised ships, offshore units, floating production plants and marine process skids. Typical service involves concentrating a liquid or recovering heat where compact size, low hold-up volume and access for cleaning are valuable.
Manufacturer Datasheet
Datasheet
AlfaVap-700
Model number
AlfaVap-700
Plate count (min)
30 plates
Plate count (max)
400 plates
Max flow rate
480.0 m3/h
Design pressure
16 bar
Application
vacuum evaporator, large
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Common Failures & Inspection Points
  • Product-side fouling or scaling, noticed as falling evaporation rate, rising temperature difference or reduced throughput
  • Gasket degradation from age, chemicals or incorrect assembly, causing external leakage or process contamination
  • Plate-cassette damage or weld leakage, indicated by cross-contamination between steam/condensate and product circuits
  • Poor distribution or restricted feed flow, causing unstable evaporation, local overheating or vibration
  • Steam-side contamination or condensate drainage problems, seen as reduced heating performance and erratic process temperatures
Service: Trend feed, vapour, condensate and heating-side temperatures and pressure losses against the commissioning baseline. Inspect for gasket leakage, plate-pack alignment, fouling and evidence of cross-contamination, and use CIP or mechanical cleaning methods compatible with the installed materials. After opening, restore the plate sequence and tightening condition exactly as specified by the manufacturer. Survey attention should include pressure-boundary integrity, isolation, leak history and evidence that cleaning chemicals and process media remain compatible; refer to the manufacturer documentation for the exact figure.
Spare Parts: Carry the correct gasket set, selected plate-cassette spares for critical installations, connection seals and maker-approved service consumables. Where the evaporator is mission-critical, stock items needed to restore feed distribution and condensate sealing without waiting for shore supply.
Use Cases: Applied to evaporation or reboiling duties on specialised ships, offshore units, floating production plants and marine process skids. Typical service involves concentrating a liquid or recovering heat where compact size, low hold-up volume and access for cleaning are valuable.
Manufacturer Datasheet
Datasheet
AlfaVap-700-30P
Model number
AlfaVap-700-30P
Plate count (min)
30 plates
Plate count (max)
400 plates
Max flow rate
96.0 m3/h
Design pressure
16 bar
Application
vacuum evaporator, large
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
85 plates
Effective flow rate at duty point
96.0 m3/h
Configuration
30P configuration
Common Failures & Inspection Points
  • Product-side fouling or scaling, noticed as falling evaporation rate, rising temperature difference or reduced throughput
  • Gasket degradation from age, chemicals or incorrect assembly, causing external leakage or process contamination
  • Plate-cassette damage or weld leakage, indicated by cross-contamination between steam/condensate and product circuits
  • Poor distribution or restricted feed flow, causing unstable evaporation, local overheating or vibration
  • Steam-side contamination or condensate drainage problems, seen as reduced heating performance and erratic process temperatures
Service: Trend feed, vapour, condensate and heating-side temperatures and pressure losses against the commissioning baseline. Inspect for gasket leakage, plate-pack alignment, fouling and evidence of cross-contamination, and use CIP or mechanical cleaning methods compatible with the installed materials. After opening, restore the plate sequence and tightening condition exactly as specified by the manufacturer. Survey attention should include pressure-boundary integrity, isolation, leak history and evidence that cleaning chemicals and process media remain compatible; refer to the manufacturer documentation for the exact figure.
Spare Parts: Carry the correct gasket set, selected plate-cassette spares for critical installations, connection seals and maker-approved service consumables. Where the evaporator is mission-critical, stock items needed to restore feed distribution and condensate sealing without waiting for shore supply.
Use Cases: Applied to evaporation or reboiling duties on specialised ships, offshore units, floating production plants and marine process skids. Typical service involves concentrating a liquid or recovering heat where compact size, low hold-up volume and access for cleaning are valuable.
Manufacturer Datasheet
Datasheet
AlfaVap-700-60P
Model number
AlfaVap-700-60P
Plate count (min)
30 plates
Plate count (max)
400 plates
Max flow rate
182.4 m3/h
Design pressure
16 bar
Application
vacuum evaporator, large
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
141 plates
Effective flow rate at duty point
182.4 m3/h
Configuration
60P configuration
Common Failures & Inspection Points
  • Product-side fouling or scaling, noticed as falling evaporation rate, rising temperature difference or reduced throughput
  • Gasket degradation from age, chemicals or incorrect assembly, causing external leakage or process contamination
  • Plate-cassette damage or weld leakage, indicated by cross-contamination between steam/condensate and product circuits
  • Poor distribution or restricted feed flow, causing unstable evaporation, local overheating or vibration
  • Steam-side contamination or condensate drainage problems, seen as reduced heating performance and erratic process temperatures
Service: Trend feed, vapour, condensate and heating-side temperatures and pressure losses against the commissioning baseline. Inspect for gasket leakage, plate-pack alignment, fouling and evidence of cross-contamination, and use CIP or mechanical cleaning methods compatible with the installed materials. After opening, restore the plate sequence and tightening condition exactly as specified by the manufacturer. Survey attention should include pressure-boundary integrity, isolation, leak history and evidence that cleaning chemicals and process media remain compatible; refer to the manufacturer documentation for the exact figure.
Spare Parts: Carry the correct gasket set, selected plate-cassette spares for critical installations, connection seals and maker-approved service consumables. Where the evaporator is mission-critical, stock items needed to restore feed distribution and condensate sealing without waiting for shore supply.
Use Cases: Applied to evaporation or reboiling duties on specialised ships, offshore units, floating production plants and marine process skids. Typical service involves concentrating a liquid or recovering heat where compact size, low hold-up volume and access for cleaning are valuable.
Manufacturer Datasheet
Datasheet
AlfaVap-700-90P
Model number
AlfaVap-700-90P
Plate count (min)
30 plates
Plate count (max)
400 plates
Max flow rate
264.0 m3/h
Design pressure
16 bar
Application
vacuum evaporator, large
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
196 plates
Effective flow rate at duty point
264.0 m3/h
Configuration
90P configuration
Common Failures & Inspection Points
  • Product-side fouling or scaling, noticed as falling evaporation rate, rising temperature difference or reduced throughput
  • Gasket degradation from age, chemicals or incorrect assembly, causing external leakage or process contamination
  • Plate-cassette damage or weld leakage, indicated by cross-contamination between steam/condensate and product circuits
  • Poor distribution or restricted feed flow, causing unstable evaporation, local overheating or vibration
  • Steam-side contamination or condensate drainage problems, seen as reduced heating performance and erratic process temperatures
Service: Trend feed, vapour, condensate and heating-side temperatures and pressure losses against the commissioning baseline. Inspect for gasket leakage, plate-pack alignment, fouling and evidence of cross-contamination, and use CIP or mechanical cleaning methods compatible with the installed materials. After opening, restore the plate sequence and tightening condition exactly as specified by the manufacturer. Survey attention should include pressure-boundary integrity, isolation, leak history and evidence that cleaning chemicals and process media remain compatible; refer to the manufacturer documentation for the exact figure.
Spare Parts: Carry the correct gasket set, selected plate-cassette spares for critical installations, connection seals and maker-approved service consumables. Where the evaporator is mission-critical, stock items needed to restore feed distribution and condensate sealing without waiting for shore supply.
Use Cases: Applied to evaporation or reboiling duties on specialised ships, offshore units, floating production plants and marine process skids. Typical service involves concentrating a liquid or recovering heat where compact size, low hold-up volume and access for cleaning are valuable.
Manufacturer Datasheet
Datasheet
AlfaVap-700-120P
Model number
AlfaVap-700-120P
Plate count (min)
30 plates
Plate count (max)
400 plates
Max flow rate
336.0 m3/h
Design pressure
16 bar
Application
vacuum evaporator, large
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
252 plates
Effective flow rate at duty point
336.0 m3/h
Configuration
120P configuration
Common Failures & Inspection Points
  • Product-side fouling or scaling, noticed as falling evaporation rate, rising temperature difference or reduced throughput
  • Gasket degradation from age, chemicals or incorrect assembly, causing external leakage or process contamination
  • Plate-cassette damage or weld leakage, indicated by cross-contamination between steam/condensate and product circuits
  • Poor distribution or restricted feed flow, causing unstable evaporation, local overheating or vibration
  • Steam-side contamination or condensate drainage problems, seen as reduced heating performance and erratic process temperatures
Service: Trend feed, vapour, condensate and heating-side temperatures and pressure losses against the commissioning baseline. Inspect for gasket leakage, plate-pack alignment, fouling and evidence of cross-contamination, and use CIP or mechanical cleaning methods compatible with the installed materials. After opening, restore the plate sequence and tightening condition exactly as specified by the manufacturer. Survey attention should include pressure-boundary integrity, isolation, leak history and evidence that cleaning chemicals and process media remain compatible; refer to the manufacturer documentation for the exact figure.
Spare Parts: Carry the correct gasket set, selected plate-cassette spares for critical installations, connection seals and maker-approved service consumables. Where the evaporator is mission-critical, stock items needed to restore feed distribution and condensate sealing without waiting for shore supply.
Use Cases: Applied to evaporation or reboiling duties on specialised ships, offshore units, floating production plants and marine process skids. Typical service involves concentrating a liquid or recovering heat where compact size, low hold-up volume and access for cleaning are valuable.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. AlfaVap-700-150P
AlfaVap-700-150P
Model number
AlfaVap-700-150P
Plate count (min)
30 plates
Plate count (max)
400 plates
Max flow rate
408.0 m3/h
Design pressure
16 bar
Application
vacuum evaporator, large
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
307 plates
Effective flow rate at duty point
408.0 m3/h
Configuration
150P configuration
Common Failures & Inspection Points
  • Product-side fouling or scaling, noticed as falling evaporation rate, rising temperature difference or reduced throughput
  • Gasket degradation from age, chemicals or incorrect assembly, causing external leakage or process contamination
  • Plate-cassette damage or weld leakage, indicated by cross-contamination between steam/condensate and product circuits
  • Poor distribution or restricted feed flow, causing unstable evaporation, local overheating or vibration
  • Steam-side contamination or condensate drainage problems, seen as reduced heating performance and erratic process temperatures
Service: Trend feed, vapour, condensate and heating-side temperatures and pressure losses against the commissioning baseline. Inspect for gasket leakage, plate-pack alignment, fouling and evidence of cross-contamination, and use CIP or mechanical cleaning methods compatible with the installed materials. After opening, restore the plate sequence and tightening condition exactly as specified by the manufacturer. Survey attention should include pressure-boundary integrity, isolation, leak history and evidence that cleaning chemicals and process media remain compatible; refer to the manufacturer documentation for the exact figure.
Spare Parts: Carry the correct gasket set, selected plate-cassette spares for critical installations, connection seals and maker-approved service consumables. Where the evaporator is mission-critical, stock items needed to restore feed distribution and condensate sealing without waiting for shore supply.
Use Cases: Applied to evaporation or reboiling duties on specialised ships, offshore units, floating production plants and marine process skids. Typical service involves concentrating a liquid or recovering heat where compact size, low hold-up volume and access for cleaning are valuable.
Manufacturer Datasheet
Datasheet
AlfaVap-700-180P
Model number
AlfaVap-700-180P
Plate count (min)
30 plates
Plate count (max)
400 plates
Max flow rate
456.0 m3/h
Design pressure
16 bar
Application
vacuum evaporator, large
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
363 plates
Effective flow rate at duty point
456.0 m3/h
Configuration
180P configuration
Common Failures & Inspection Points
  • Product-side fouling or scaling, noticed as falling evaporation rate, rising temperature difference or reduced throughput
  • Gasket degradation from age, chemicals or incorrect assembly, causing external leakage or process contamination
  • Plate-cassette damage or weld leakage, indicated by cross-contamination between steam/condensate and product circuits
  • Poor distribution or restricted feed flow, causing unstable evaporation, local overheating or vibration
  • Steam-side contamination or condensate drainage problems, seen as reduced heating performance and erratic process temperatures
Service: Trend feed, vapour, condensate and heating-side temperatures and pressure losses against the commissioning baseline. Inspect for gasket leakage, plate-pack alignment, fouling and evidence of cross-contamination, and use CIP or mechanical cleaning methods compatible with the installed materials. After opening, restore the plate sequence and tightening condition exactly as specified by the manufacturer. Survey attention should include pressure-boundary integrity, isolation, leak history and evidence that cleaning chemicals and process media remain compatible; refer to the manufacturer documentation for the exact figure.
Spare Parts: Carry the correct gasket set, selected plate-cassette spares for critical installations, connection seals and maker-approved service consumables. Where the evaporator is mission-critical, stock items needed to restore feed distribution and condensate sealing without waiting for shore supply.
Use Cases: Applied to evaporation or reboiling duties on specialised ships, offshore units, floating production plants and marine process skids. Typical service involves concentrating a liquid or recovering heat where compact size, low hold-up volume and access for cleaning are valuable.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. AlfaVap-700-MAX
AlfaVap-700-MAX
Model number
AlfaVap-700-MAX
Plate count (min)
30 plates
Plate count (max)
400 plates
Max flow rate
480.0 m3/h
Design pressure
16 bar
Application
vacuum evaporator, large
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
400 plates
Effective flow rate at duty point
480.0 m3/h
Configuration
MAX configuration
Common Failures & Inspection Points
  • Product-side fouling or scaling, noticed as falling evaporation rate, rising temperature difference or reduced throughput
  • Gasket degradation from age, chemicals or incorrect assembly, causing external leakage or process contamination
  • Plate-cassette damage or weld leakage, indicated by cross-contamination between steam/condensate and product circuits
  • Poor distribution or restricted feed flow, causing unstable evaporation, local overheating or vibration
  • Steam-side contamination or condensate drainage problems, seen as reduced heating performance and erratic process temperatures
Service: Trend feed, vapour, condensate and heating-side temperatures and pressure losses against the commissioning baseline. Inspect for gasket leakage, plate-pack alignment, fouling and evidence of cross-contamination, and use CIP or mechanical cleaning methods compatible with the installed materials. After opening, restore the plate sequence and tightening condition exactly as specified by the manufacturer. Survey attention should include pressure-boundary integrity, isolation, leak history and evidence that cleaning chemicals and process media remain compatible; refer to the manufacturer documentation for the exact figure.
Spare Parts: Carry the correct gasket set, selected plate-cassette spares for critical installations, connection seals and maker-approved service consumables. Where the evaporator is mission-critical, stock items needed to restore feed distribution and condensate sealing without waiting for shore supply.
Use Cases: Applied to evaporation or reboiling duties on specialised ships, offshore units, floating production plants and marine process skids. Typical service involves concentrating a liquid or recovering heat where compact size, low hold-up volume and access for cleaning are valuable.
Manufacturer Datasheet
Datasheet
CP15
Model number
CP15
Max flow rate
30.0 m3/h
Design pressure
32 bar
Max temperature
350 C
Application
welded plate-block, harsh duty
Construction
Fully welded plate-and-block
Plate material
Stainless steel / titanium / Hastelloy / SMO 254 / 904L
Service interval
Mechanical cleaning at 5,000-8,000 operating hours typical
Common Failures & Inspection Points
  • Fouling in process channels from dirty or polymerising media, noticed as increasing pressure drop and loss of thermal performance
  • Internal plate or weld leakage from corrosion, fatigue or incompatible media, indicated by cross-contamination between circuits
  • Cover-gasket leakage after ageing, incorrect assembly or thermal cycling, seen as external seepage at the casing
  • Flow maldistribution or blocked passages, causing uneven outlet temperatures and reduced duty
  • Corrosion at covers, nozzles or pressure-retaining parts where coating, material selection or drainage is inadequate
Service: Record temperatures, pressures and pressure drop on both sides so deterioration can be identified before capacity is lost. Inspect covers, nozzles, gaskets and accessible plate surfaces for fouling, corrosion or leakage and clean chemically or mechanically using methods approved for the installed materials. After any opening, use the correct gasket arrangement and tightening sequence and verify leak tightness before return to service. Class attention is normally on pressure-boundary condition, material and repair traceability, isolation and leak-test records; refer to the manufacturer documentation for the exact figure.
Spare Parts: Keep cover gaskets and connection sealing items matched to the installed metallurgy, plus maker-specified service hardware and cleaning consumables. For critical duties, hold repair material or approved spare pressure-cover components according to the vessel's redundancy and trading pattern.
Use Cases: Suitable for demanding heat-recovery, heating, cooling, condensation and process duties on specialised merchant vessels, offshore units and floating process plants. It is chosen where a compact welded exchanger is needed but access to both circuits for inspection and cleaning remains important.
Manufacturer Datasheet
Datasheet
CP20
Model number
CP20
Max flow rate
55.0 m3/h
Design pressure
32 bar
Max temperature
350 C
Application
welded plate-block
Construction
Fully welded plate-and-block
Plate material
Stainless steel / titanium / Hastelloy / SMO 254 / 904L
Service interval
Mechanical cleaning at 5,000-8,000 operating hours typical
Common Failures & Inspection Points
  • Fouling in process channels from dirty or polymerising media, noticed as increasing pressure drop and loss of thermal performance
  • Internal plate or weld leakage from corrosion, fatigue or incompatible media, indicated by cross-contamination between circuits
  • Cover-gasket leakage after ageing, incorrect assembly or thermal cycling, seen as external seepage at the casing
  • Flow maldistribution or blocked passages, causing uneven outlet temperatures and reduced duty
  • Corrosion at covers, nozzles or pressure-retaining parts where coating, material selection or drainage is inadequate
Service: Record temperatures, pressures and pressure drop on both sides so deterioration can be identified before capacity is lost. Inspect covers, nozzles, gaskets and accessible plate surfaces for fouling, corrosion or leakage and clean chemically or mechanically using methods approved for the installed materials. After any opening, use the correct gasket arrangement and tightening sequence and verify leak tightness before return to service. Class attention is normally on pressure-boundary condition, material and repair traceability, isolation and leak-test records; refer to the manufacturer documentation for the exact figure.
Spare Parts: Keep cover gaskets and connection sealing items matched to the installed metallurgy, plus maker-specified service hardware and cleaning consumables. For critical duties, hold repair material or approved spare pressure-cover components according to the vessel's redundancy and trading pattern.
Use Cases: Suitable for demanding heat-recovery, heating, cooling, condensation and process duties on specialised merchant vessels, offshore units and floating process plants. It is chosen where a compact welded exchanger is needed but access to both circuits for inspection and cleaning remains important.
Manufacturer Datasheet
Datasheet
CP30
Model number
CP30
Max flow rate
105.0 m3/h
Design pressure
32 bar
Max temperature
350 C
Application
welded plate-block, marine engine room
Construction
Fully welded plate-and-block
Plate material
Stainless steel / titanium / Hastelloy / SMO 254 / 904L
Service interval
Mechanical cleaning at 5,000-8,000 operating hours typical
Common Failures & Inspection Points
  • Fouling in process channels from dirty or polymerising media, noticed as increasing pressure drop and loss of thermal performance
  • Internal plate or weld leakage from corrosion, fatigue or incompatible media, indicated by cross-contamination between circuits
  • Cover-gasket leakage after ageing, incorrect assembly or thermal cycling, seen as external seepage at the casing
  • Flow maldistribution or blocked passages, causing uneven outlet temperatures and reduced duty
  • Corrosion at covers, nozzles or pressure-retaining parts where coating, material selection or drainage is inadequate
Service: Record temperatures, pressures and pressure drop on both sides so deterioration can be identified before capacity is lost. Inspect covers, nozzles, gaskets and accessible plate surfaces for fouling, corrosion or leakage and clean chemically or mechanically using methods approved for the installed materials. After any opening, use the correct gasket arrangement and tightening sequence and verify leak tightness before return to service. Class attention is normally on pressure-boundary condition, material and repair traceability, isolation and leak-test records; refer to the manufacturer documentation for the exact figure.
Spare Parts: Keep cover gaskets and connection sealing items matched to the installed metallurgy, plus maker-specified service hardware and cleaning consumables. For critical duties, hold repair material or approved spare pressure-cover components according to the vessel's redundancy and trading pattern.
Use Cases: Suitable for demanding heat-recovery, heating, cooling, condensation and process duties on specialised merchant vessels, offshore units and floating process plants. It is chosen where a compact welded exchanger is needed but access to both circuits for inspection and cleaning remains important.
Manufacturer Datasheet
Datasheet
CP40
Model number
CP40
Max flow rate
190.0 m3/h
Design pressure
32 bar
Max temperature
350 C
Application
welded plate-block, marine engine room
Construction
Fully welded plate-and-block
Plate material
Stainless steel / titanium / Hastelloy / SMO 254 / 904L
Service interval
Mechanical cleaning at 5,000-8,000 operating hours typical
Common Failures & Inspection Points
  • Fouling in process channels from dirty or polymerising media, noticed as increasing pressure drop and loss of thermal performance
  • Internal plate or weld leakage from corrosion, fatigue or incompatible media, indicated by cross-contamination between circuits
  • Cover-gasket leakage after ageing, incorrect assembly or thermal cycling, seen as external seepage at the casing
  • Flow maldistribution or blocked passages, causing uneven outlet temperatures and reduced duty
  • Corrosion at covers, nozzles or pressure-retaining parts where coating, material selection or drainage is inadequate
Service: Record temperatures, pressures and pressure drop on both sides so deterioration can be identified before capacity is lost. Inspect covers, nozzles, gaskets and accessible plate surfaces for fouling, corrosion or leakage and clean chemically or mechanically using methods approved for the installed materials. After any opening, use the correct gasket arrangement and tightening sequence and verify leak tightness before return to service. Class attention is normally on pressure-boundary condition, material and repair traceability, isolation and leak-test records; refer to the manufacturer documentation for the exact figure.
Spare Parts: Keep cover gaskets and connection sealing items matched to the installed metallurgy, plus maker-specified service hardware and cleaning consumables. For critical duties, hold repair material or approved spare pressure-cover components according to the vessel's redundancy and trading pattern.
Use Cases: Suitable for demanding heat-recovery, heating, cooling, condensation and process duties on specialised merchant vessels, offshore units and floating process plants. It is chosen where a compact welded exchanger is needed but access to both circuits for inspection and cleaning remains important.
Manufacturer Datasheet
Datasheet
CP50
Model number
CP50
Max flow rate
290.0 m3/h
Design pressure
42 bar
Max temperature
350 C
Application
welded plate-block, marine industrial
Construction
Fully welded plate-and-block
Plate material
Stainless steel / titanium / Hastelloy / SMO 254 / 904L
Service interval
Mechanical cleaning at 5,000-8,000 operating hours typical
Common Failures & Inspection Points
  • Fouling in process channels from dirty or polymerising media, noticed as increasing pressure drop and loss of thermal performance
  • Internal plate or weld leakage from corrosion, fatigue or incompatible media, indicated by cross-contamination between circuits
  • Cover-gasket leakage after ageing, incorrect assembly or thermal cycling, seen as external seepage at the casing
  • Flow maldistribution or blocked passages, causing uneven outlet temperatures and reduced duty
  • Corrosion at covers, nozzles or pressure-retaining parts where coating, material selection or drainage is inadequate
Service: Record temperatures, pressures and pressure drop on both sides so deterioration can be identified before capacity is lost. Inspect covers, nozzles, gaskets and accessible plate surfaces for fouling, corrosion or leakage and clean chemically or mechanically using methods approved for the installed materials. After any opening, use the correct gasket arrangement and tightening sequence and verify leak tightness before return to service. Class attention is normally on pressure-boundary condition, material and repair traceability, isolation and leak-test records; refer to the manufacturer documentation for the exact figure.
Spare Parts: Keep cover gaskets and connection sealing items matched to the installed metallurgy, plus maker-specified service hardware and cleaning consumables. For critical duties, hold repair material or approved spare pressure-cover components according to the vessel's redundancy and trading pattern.
Use Cases: Suitable for demanding heat-recovery, heating, cooling, condensation and process duties on specialised merchant vessels, offshore units and floating process plants. It is chosen where a compact welded exchanger is needed but access to both circuits for inspection and cleaning remains important.
Manufacturer Datasheet
Datasheet
CP75
Model number
CP75
Max flow rate
620.0 m3/h
Design pressure
42 bar
Max temperature
350 C
Application
welded plate-block, large industrial
Construction
Fully welded plate-and-block
Plate material
Stainless steel / titanium / Hastelloy / SMO 254 / 904L
Service interval
Mechanical cleaning at 5,000-8,000 operating hours typical
Common Failures & Inspection Points
  • Fouling in process channels from dirty or polymerising media, noticed as increasing pressure drop and loss of thermal performance
  • Internal plate or weld leakage from corrosion, fatigue or incompatible media, indicated by cross-contamination between circuits
  • Cover-gasket leakage after ageing, incorrect assembly or thermal cycling, seen as external seepage at the casing
  • Flow maldistribution or blocked passages, causing uneven outlet temperatures and reduced duty
  • Corrosion at covers, nozzles or pressure-retaining parts where coating, material selection or drainage is inadequate
Service: Record temperatures, pressures and pressure drop on both sides so deterioration can be identified before capacity is lost. Inspect covers, nozzles, gaskets and accessible plate surfaces for fouling, corrosion or leakage and clean chemically or mechanically using methods approved for the installed materials. After any opening, use the correct gasket arrangement and tightening sequence and verify leak tightness before return to service. Class attention is normally on pressure-boundary condition, material and repair traceability, isolation and leak-test records; refer to the manufacturer documentation for the exact figure.
Spare Parts: Keep cover gaskets and connection sealing items matched to the installed metallurgy, plus maker-specified service hardware and cleaning consumables. For critical duties, hold repair material or approved spare pressure-cover components according to the vessel's redundancy and trading pattern.
Use Cases: Suitable for demanding heat-recovery, heating, cooling, condensation and process duties on specialised merchant vessels, offshore units and floating process plants. It is chosen where a compact welded exchanger is needed but access to both circuits for inspection and cleaning remains important.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. CP120
CP120
Model number
CP120
Max flow rate
1500.0 m3/h
Design pressure
42 bar
Max temperature
350 C
Application
welded plate-block, very large industrial
Construction
Fully welded plate-and-block
Plate material
Stainless steel / titanium / Hastelloy / SMO 254 / 904L
Service interval
Mechanical cleaning at 5,000-8,000 operating hours typical
Common Failures & Inspection Points
  • Fouling in process channels from dirty or polymerising media, noticed as increasing pressure drop and loss of thermal performance
  • Internal plate or weld leakage from corrosion, fatigue or incompatible media, indicated by cross-contamination between circuits
  • Cover-gasket leakage after ageing, incorrect assembly or thermal cycling, seen as external seepage at the casing
  • Flow maldistribution or blocked passages, causing uneven outlet temperatures and reduced duty
  • Corrosion at covers, nozzles or pressure-retaining parts where coating, material selection or drainage is inadequate
Service: Record temperatures, pressures and pressure drop on both sides so deterioration can be identified before capacity is lost. Inspect covers, nozzles, gaskets and accessible plate surfaces for fouling, corrosion or leakage and clean chemically or mechanically using methods approved for the installed materials. After any opening, use the correct gasket arrangement and tightening sequence and verify leak tightness before return to service. Class attention is normally on pressure-boundary condition, material and repair traceability, isolation and leak-test records; refer to the manufacturer documentation for the exact figure.
Spare Parts: Keep cover gaskets and connection sealing items matched to the installed metallurgy, plus maker-specified service hardware and cleaning consumables. For critical duties, hold repair material or approved spare pressure-cover components according to the vessel's redundancy and trading pattern.
Use Cases: Suitable for demanding heat-recovery, heating, cooling, condensation and process duties on specialised merchant vessels, offshore units and floating process plants. It is chosen where a compact welded exchanger is needed but access to both circuits for inspection and cleaning remains important.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. AC10
AC10
Model number
AC10
Plate count (min)
6 plates
Plate count (max)
80 plates
Max flow rate
4.5 m3/h
Design pressure
31 bar
Application
evaporator/condenser, small heat pump
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Common Failures & Inspection Points
  • Internal fouling or contamination on the fluid side, producing reduced heat transfer and increased pressure drop
  • Restricted refrigerant or liquid distribution, producing uneven temperature profiles, poor capacity or unstable system operation
  • Freezing or abnormal thermal stress caused by unsuitable operating conditions, producing loss of performance or possible internal damage
  • External corrosion, vibration damage or stressed pipe connections, producing leakage at joints or connections
  • Internal leakage caused by plate or braze damage, producing cross-contamination, loss of refrigerant or abnormal system pressures
Service: Check inlet and outlet temperatures, pressure drop and system performance for signs of fouling or maldistribution. Inspect connections, supports and adjacent pipework for vibration loads, corrosion and leakage. Because the brazed core is not opened like a gasketed plate heat exchanger, cleaning and repair options depend on the contamination type and manufacturer-approved procedures. Verify refrigerant and fluid compatibility before chemical cleaning or changing service. Use the unit nameplate and Alfa Laval documentation for exact pressure, temperature, testing and installation limits.
Spare Parts: There are normally few internal routine spares for a brazed plate heat exchanger because the plate pack is permanently brazed. Useful onboard spares are usually installation-specific items such as connection seals, sensors, valves or a replacement exchanger where system criticality justifies it. Any replacement unit must match the original thermal duty, connection arrangement and approved design conditions.
Use Cases: Marine HVAC chillers, refrigeration plants, heat pumps and packaged thermal systems, as well as corresponding shore-based air-conditioning and refrigeration applications.
Manufacturer Datasheet
Datasheet
AC10-MAX
Model number
AC10-MAX
Plate count (min)
6 plates
Plate count (max)
80 plates
Max flow rate
4.5 m3/h
Design pressure
31 bar
Application
evaporator/condenser, small heat pump
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
80 plates
Effective flow rate at duty point
4.5 m3/h
Configuration
MAX configuration
Common Failures & Inspection Points
  • Internal fouling or contamination on the fluid side, producing reduced heat transfer and increased pressure drop
  • Restricted refrigerant or liquid distribution, producing uneven temperature profiles, poor capacity or unstable system operation
  • Freezing or abnormal thermal stress caused by unsuitable operating conditions, producing loss of performance or possible internal damage
  • External corrosion, vibration damage or stressed pipe connections, producing leakage at joints or connections
  • Internal leakage caused by plate or braze damage, producing cross-contamination, loss of refrigerant or abnormal system pressures
Service: Check inlet and outlet temperatures, pressure drop and system performance for signs of fouling or maldistribution. Inspect connections, supports and adjacent pipework for vibration loads, corrosion and leakage. Because the brazed core is not opened like a gasketed plate heat exchanger, cleaning and repair options depend on the contamination type and manufacturer-approved procedures. Verify refrigerant and fluid compatibility before chemical cleaning or changing service. Use the unit nameplate and Alfa Laval documentation for exact pressure, temperature, testing and installation limits.
Spare Parts: There are normally few internal routine spares for a brazed plate heat exchanger because the plate pack is permanently brazed. Useful onboard spares are usually installation-specific items such as connection seals, sensors, valves or a replacement exchanger where system criticality justifies it. Any replacement unit must match the original thermal duty, connection arrangement and approved design conditions.
Use Cases: Marine HVAC chillers, refrigeration plants, heat pumps and packaged thermal systems, as well as corresponding shore-based air-conditioning and refrigeration applications.
Manufacturer Datasheet
Datasheet
AC16
Model number
AC16
Plate count (min)
10 plates
Plate count (max)
120 plates
Max flow rate
12.0 m3/h
Design pressure
31 bar
Application
evaporator/condenser, residential heat pump
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Common Failures & Inspection Points
  • Internal fouling or contamination on the fluid side, producing reduced heat transfer and increased pressure drop
  • Restricted refrigerant or liquid distribution, producing uneven temperature profiles, poor capacity or unstable system operation
  • Freezing or abnormal thermal stress caused by unsuitable operating conditions, producing loss of performance or possible internal damage
  • External corrosion, vibration damage or stressed pipe connections, producing leakage at joints or connections
  • Internal leakage caused by plate or braze damage, producing cross-contamination, loss of refrigerant or abnormal system pressures
Service: Check inlet and outlet temperatures, pressure drop and system performance for signs of fouling or maldistribution. Inspect connections, supports and adjacent pipework for vibration loads, corrosion and leakage. Because the brazed core is not opened like a gasketed plate heat exchanger, cleaning and repair options depend on the contamination type and manufacturer-approved procedures. Verify refrigerant and fluid compatibility before chemical cleaning or changing service. Use the unit nameplate and Alfa Laval documentation for exact pressure, temperature, testing and installation limits.
Spare Parts: There are normally few internal routine spares for a brazed plate heat exchanger because the plate pack is permanently brazed. Useful onboard spares are usually installation-specific items such as connection seals, sensors, valves or a replacement exchanger where system criticality justifies it. Any replacement unit must match the original thermal duty, connection arrangement and approved design conditions.
Use Cases: Marine HVAC chillers, refrigeration plants, heat pumps and packaged thermal systems, as well as corresponding shore-based air-conditioning and refrigeration applications.
Manufacturer Datasheet
Datasheet
AC16-MAX
Model number
AC16-MAX
Plate count (min)
10 plates
Plate count (max)
120 plates
Max flow rate
12.0 m3/h
Design pressure
31 bar
Application
evaporator/condenser, residential heat pump
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
120 plates
Effective flow rate at duty point
12.0 m3/h
Configuration
MAX configuration
Common Failures & Inspection Points
  • Internal fouling or contamination on the fluid side, producing reduced heat transfer and increased pressure drop
  • Restricted refrigerant or liquid distribution, producing uneven temperature profiles, poor capacity or unstable system operation
  • Freezing or abnormal thermal stress caused by unsuitable operating conditions, producing loss of performance or possible internal damage
  • External corrosion, vibration damage or stressed pipe connections, producing leakage at joints or connections
  • Internal leakage caused by plate or braze damage, producing cross-contamination, loss of refrigerant or abnormal system pressures
Service: Check inlet and outlet temperatures, pressure drop and system performance for signs of fouling or maldistribution. Inspect connections, supports and adjacent pipework for vibration loads, corrosion and leakage. Because the brazed core is not opened like a gasketed plate heat exchanger, cleaning and repair options depend on the contamination type and manufacturer-approved procedures. Verify refrigerant and fluid compatibility before chemical cleaning or changing service. Use the unit nameplate and Alfa Laval documentation for exact pressure, temperature, testing and installation limits.
Spare Parts: There are normally few internal routine spares for a brazed plate heat exchanger because the plate pack is permanently brazed. Useful onboard spares are usually installation-specific items such as connection seals, sensors, valves or a replacement exchanger where system criticality justifies it. Any replacement unit must match the original thermal duty, connection arrangement and approved design conditions.
Use Cases: Marine HVAC chillers, refrigeration plants, heat pumps and packaged thermal systems, as well as corresponding shore-based air-conditioning and refrigeration applications.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. AC18
AC18
Model number
AC18
Plate count (min)
10 plates
Plate count (max)
120 plates
Max flow rate
14.0 m3/h
Design pressure
31 bar
Application
evaporator/condenser, residential heat pump
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Common Failures & Inspection Points
  • Internal fouling or contamination on the fluid side, producing reduced heat transfer and increased pressure drop
  • Restricted refrigerant or liquid distribution, producing uneven temperature profiles, poor capacity or unstable system operation
  • Freezing or abnormal thermal stress caused by unsuitable operating conditions, producing loss of performance or possible internal damage
  • External corrosion, vibration damage or stressed pipe connections, producing leakage at joints or connections
  • Internal leakage caused by plate or braze damage, producing cross-contamination, loss of refrigerant or abnormal system pressures
Service: Check inlet and outlet temperatures, pressure drop and system performance for signs of fouling or maldistribution. Inspect connections, supports and adjacent pipework for vibration loads, corrosion and leakage. Because the brazed core is not opened like a gasketed plate heat exchanger, cleaning and repair options depend on the contamination type and manufacturer-approved procedures. Verify refrigerant and fluid compatibility before chemical cleaning or changing service. Use the unit nameplate and Alfa Laval documentation for exact pressure, temperature, testing and installation limits.
Spare Parts: There are normally few internal routine spares for a brazed plate heat exchanger because the plate pack is permanently brazed. Useful onboard spares are usually installation-specific items such as connection seals, sensors, valves or a replacement exchanger where system criticality justifies it. Any replacement unit must match the original thermal duty, connection arrangement and approved design conditions.
Use Cases: Marine HVAC chillers, refrigeration plants, heat pumps and packaged thermal systems, as well as corresponding shore-based air-conditioning and refrigeration applications.
Manufacturer Datasheet
Datasheet
AC18-MAX
Model number
AC18-MAX
Plate count (min)
10 plates
Plate count (max)
120 plates
Max flow rate
14.0 m3/h
Design pressure
31 bar
Application
evaporator/condenser, residential heat pump
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
120 plates
Effective flow rate at duty point
14.0 m3/h
Configuration
MAX configuration
Common Failures & Inspection Points
  • Internal fouling or contamination on the fluid side, producing reduced heat transfer and increased pressure drop
  • Restricted refrigerant or liquid distribution, producing uneven temperature profiles, poor capacity or unstable system operation
  • Freezing or abnormal thermal stress caused by unsuitable operating conditions, producing loss of performance or possible internal damage
  • External corrosion, vibration damage or stressed pipe connections, producing leakage at joints or connections
  • Internal leakage caused by plate or braze damage, producing cross-contamination, loss of refrigerant or abnormal system pressures
Service: Check inlet and outlet temperatures, pressure drop and system performance for signs of fouling or maldistribution. Inspect connections, supports and adjacent pipework for vibration loads, corrosion and leakage. Because the brazed core is not opened like a gasketed plate heat exchanger, cleaning and repair options depend on the contamination type and manufacturer-approved procedures. Verify refrigerant and fluid compatibility before chemical cleaning or changing service. Use the unit nameplate and Alfa Laval documentation for exact pressure, temperature, testing and installation limits.
Spare Parts: There are normally few internal routine spares for a brazed plate heat exchanger because the plate pack is permanently brazed. Useful onboard spares are usually installation-specific items such as connection seals, sensors, valves or a replacement exchanger where system criticality justifies it. Any replacement unit must match the original thermal duty, connection arrangement and approved design conditions.
Use Cases: Marine HVAC chillers, refrigeration plants, heat pumps and packaged thermal systems, as well as corresponding shore-based air-conditioning and refrigeration applications.
Manufacturer Datasheet
Datasheet
AC30
Model number
AC30
Plate count (min)
10 plates
Plate count (max)
150 plates
Max flow rate
22.0 m3/h
Design pressure
31 bar
Application
evaporator/condenser, commercial heat pump
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Common Failures & Inspection Points
  • Internal fouling or contamination on the fluid side, producing reduced heat transfer and increased pressure drop
  • Restricted refrigerant or liquid distribution, producing uneven temperature profiles, poor capacity or unstable system operation
  • Freezing or abnormal thermal stress caused by unsuitable operating conditions, producing loss of performance or possible internal damage
  • External corrosion, vibration damage or stressed pipe connections, producing leakage at joints or connections
  • Internal leakage caused by plate or braze damage, producing cross-contamination, loss of refrigerant or abnormal system pressures
Service: Check inlet and outlet temperatures, pressure drop and system performance for signs of fouling or maldistribution. Inspect connections, supports and adjacent pipework for vibration loads, corrosion and leakage. Because the brazed core is not opened like a gasketed plate heat exchanger, cleaning and repair options depend on the contamination type and manufacturer-approved procedures. Verify refrigerant and fluid compatibility before chemical cleaning or changing service. Use the unit nameplate and Alfa Laval documentation for exact pressure, temperature, testing and installation limits.
Spare Parts: There are normally few internal routine spares for a brazed plate heat exchanger because the plate pack is permanently brazed. Useful onboard spares are usually installation-specific items such as connection seals, sensors, valves or a replacement exchanger where system criticality justifies it. Any replacement unit must match the original thermal duty, connection arrangement and approved design conditions.
Use Cases: Marine HVAC chillers, refrigeration plants, heat pumps and packaged thermal systems, as well as corresponding shore-based air-conditioning and refrigeration applications.
Manufacturer Datasheet
Datasheet
AC30-MAX
Model number
AC30-MAX
Plate count (min)
10 plates
Plate count (max)
150 plates
Max flow rate
22.0 m3/h
Design pressure
31 bar
Application
evaporator/condenser, commercial heat pump
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
150 plates
Effective flow rate at duty point
22.0 m3/h
Configuration
MAX configuration
Common Failures & Inspection Points
  • Internal fouling or contamination on the fluid side, producing reduced heat transfer and increased pressure drop
  • Restricted refrigerant or liquid distribution, producing uneven temperature profiles, poor capacity or unstable system operation
  • Freezing or abnormal thermal stress caused by unsuitable operating conditions, producing loss of performance or possible internal damage
  • External corrosion, vibration damage or stressed pipe connections, producing leakage at joints or connections
  • Internal leakage caused by plate or braze damage, producing cross-contamination, loss of refrigerant or abnormal system pressures
Service: Check inlet and outlet temperatures, pressure drop and system performance for signs of fouling or maldistribution. Inspect connections, supports and adjacent pipework for vibration loads, corrosion and leakage. Because the brazed core is not opened like a gasketed plate heat exchanger, cleaning and repair options depend on the contamination type and manufacturer-approved procedures. Verify refrigerant and fluid compatibility before chemical cleaning or changing service. Use the unit nameplate and Alfa Laval documentation for exact pressure, temperature, testing and installation limits.
Spare Parts: There are normally few internal routine spares for a brazed plate heat exchanger because the plate pack is permanently brazed. Useful onboard spares are usually installation-specific items such as connection seals, sensors, valves or a replacement exchanger where system criticality justifies it. Any replacement unit must match the original thermal duty, connection arrangement and approved design conditions.
Use Cases: Marine HVAC chillers, refrigeration plants, heat pumps and packaged thermal systems, as well as corresponding shore-based air-conditioning and refrigeration applications.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. AC32
AC32
Model number
AC32
Plate count (min)
10 plates
Plate count (max)
150 plates
Max flow rate
24.0 m3/h
Design pressure
31 bar
Application
evaporator/condenser, commercial heat pump
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Common Failures & Inspection Points
  • Internal fouling or contamination on the fluid side, producing reduced heat transfer and increased pressure drop
  • Restricted refrigerant or liquid distribution, producing uneven temperature profiles, poor capacity or unstable system operation
  • Freezing or abnormal thermal stress caused by unsuitable operating conditions, producing loss of performance or possible internal damage
  • External corrosion, vibration damage or stressed pipe connections, producing leakage at joints or connections
  • Internal leakage caused by plate or braze damage, producing cross-contamination, loss of refrigerant or abnormal system pressures
Service: Check inlet and outlet temperatures, pressure drop and system performance for signs of fouling or maldistribution. Inspect connections, supports and adjacent pipework for vibration loads, corrosion and leakage. Because the brazed core is not opened like a gasketed plate heat exchanger, cleaning and repair options depend on the contamination type and manufacturer-approved procedures. Verify refrigerant and fluid compatibility before chemical cleaning or changing service. Use the unit nameplate and Alfa Laval documentation for exact pressure, temperature, testing and installation limits.
Spare Parts: There are normally few internal routine spares for a brazed plate heat exchanger because the plate pack is permanently brazed. Useful onboard spares are usually installation-specific items such as connection seals, sensors, valves or a replacement exchanger where system criticality justifies it. Any replacement unit must match the original thermal duty, connection arrangement and approved design conditions.
Use Cases: Marine HVAC chillers, refrigeration plants, heat pumps and packaged thermal systems, as well as corresponding shore-based air-conditioning and refrigeration applications.
Manufacturer Datasheet
Datasheet
AC32-MAX
Model number
AC32-MAX
Plate count (min)
10 plates
Plate count (max)
150 plates
Max flow rate
24.0 m3/h
Design pressure
31 bar
Application
evaporator/condenser, commercial heat pump
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
150 plates
Effective flow rate at duty point
24.0 m3/h
Configuration
MAX configuration
Common Failures & Inspection Points
  • Internal fouling or contamination on the fluid side, producing reduced heat transfer and increased pressure drop
  • Restricted refrigerant or liquid distribution, producing uneven temperature profiles, poor capacity or unstable system operation
  • Freezing or abnormal thermal stress caused by unsuitable operating conditions, producing loss of performance or possible internal damage
  • External corrosion, vibration damage or stressed pipe connections, producing leakage at joints or connections
  • Internal leakage caused by plate or braze damage, producing cross-contamination, loss of refrigerant or abnormal system pressures
Service: Check inlet and outlet temperatures, pressure drop and system performance for signs of fouling or maldistribution. Inspect connections, supports and adjacent pipework for vibration loads, corrosion and leakage. Because the brazed core is not opened like a gasketed plate heat exchanger, cleaning and repair options depend on the contamination type and manufacturer-approved procedures. Verify refrigerant and fluid compatibility before chemical cleaning or changing service. Use the unit nameplate and Alfa Laval documentation for exact pressure, temperature, testing and installation limits.
Spare Parts: There are normally few internal routine spares for a brazed plate heat exchanger because the plate pack is permanently brazed. Useful onboard spares are usually installation-specific items such as connection seals, sensors, valves or a replacement exchanger where system criticality justifies it. Any replacement unit must match the original thermal duty, connection arrangement and approved design conditions.
Use Cases: Marine HVAC chillers, refrigeration plants, heat pumps and packaged thermal systems, as well as corresponding shore-based air-conditioning and refrigeration applications.
Manufacturer Datasheet
Datasheet
AC65
Model number
AC65
Plate count (min)
16 plates
Plate count (max)
200 plates
Max flow rate
48.0 m3/h
Design pressure
31 bar
Application
evaporator residential heat pump (compact)
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Common Failures & Inspection Points
  • Internal fouling or contamination on the fluid side, producing reduced heat transfer and increased pressure drop
  • Restricted refrigerant or liquid distribution, producing uneven temperature profiles, poor capacity or unstable system operation
  • Freezing or abnormal thermal stress caused by unsuitable operating conditions, producing loss of performance or possible internal damage
  • External corrosion, vibration damage or stressed pipe connections, producing leakage at joints or connections
  • Internal leakage caused by plate or braze damage, producing cross-contamination, loss of refrigerant or abnormal system pressures
Service: Check inlet and outlet temperatures, pressure drop and system performance for signs of fouling or maldistribution. Inspect connections, supports and adjacent pipework for vibration loads, corrosion and leakage. Because the brazed core is not opened like a gasketed plate heat exchanger, cleaning and repair options depend on the contamination type and manufacturer-approved procedures. Verify refrigerant and fluid compatibility before chemical cleaning or changing service. Use the unit nameplate and Alfa Laval documentation for exact pressure, temperature, testing and installation limits.
Spare Parts: There are normally few internal routine spares for a brazed plate heat exchanger because the plate pack is permanently brazed. Useful onboard spares are usually installation-specific items such as connection seals, sensors, valves or a replacement exchanger where system criticality justifies it. Any replacement unit must match the original thermal duty, connection arrangement and approved design conditions.
Use Cases: Marine HVAC chillers, refrigeration plants, heat pumps and packaged thermal systems, as well as corresponding shore-based air-conditioning and refrigeration applications.
Manufacturer Datasheet
Datasheet
AC65-MAX
Model number
AC65-MAX
Plate count (min)
16 plates
Plate count (max)
200 plates
Max flow rate
48.0 m3/h
Design pressure
31 bar
Application
evaporator residential heat pump (compact)
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
200 plates
Effective flow rate at duty point
48.0 m3/h
Configuration
MAX configuration
Common Failures & Inspection Points
  • Internal fouling or contamination on the fluid side, producing reduced heat transfer and increased pressure drop
  • Restricted refrigerant or liquid distribution, producing uneven temperature profiles, poor capacity or unstable system operation
  • Freezing or abnormal thermal stress caused by unsuitable operating conditions, producing loss of performance or possible internal damage
  • External corrosion, vibration damage or stressed pipe connections, producing leakage at joints or connections
  • Internal leakage caused by plate or braze damage, producing cross-contamination, loss of refrigerant or abnormal system pressures
Service: Check inlet and outlet temperatures, pressure drop and system performance for signs of fouling or maldistribution. Inspect connections, supports and adjacent pipework for vibration loads, corrosion and leakage. Because the brazed core is not opened like a gasketed plate heat exchanger, cleaning and repair options depend on the contamination type and manufacturer-approved procedures. Verify refrigerant and fluid compatibility before chemical cleaning or changing service. Use the unit nameplate and Alfa Laval documentation for exact pressure, temperature, testing and installation limits.
Spare Parts: There are normally few internal routine spares for a brazed plate heat exchanger because the plate pack is permanently brazed. Useful onboard spares are usually installation-specific items such as connection seals, sensors, valves or a replacement exchanger where system criticality justifies it. Any replacement unit must match the original thermal duty, connection arrangement and approved design conditions.
Use Cases: Marine HVAC chillers, refrigeration plants, heat pumps and packaged thermal systems, as well as corresponding shore-based air-conditioning and refrigeration applications.
Manufacturer Datasheet
Datasheet
AC70
Model number
AC70
Plate count (min)
16 plates
Plate count (max)
200 plates
Max flow rate
50.0 m3/h
Design pressure
31 bar
Application
evaporator/condenser, commercial
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Common Failures & Inspection Points
  • Internal fouling or contamination on the fluid side, producing reduced heat transfer and increased pressure drop
  • Restricted refrigerant or liquid distribution, producing uneven temperature profiles, poor capacity or unstable system operation
  • Freezing or abnormal thermal stress caused by unsuitable operating conditions, producing loss of performance or possible internal damage
  • External corrosion, vibration damage or stressed pipe connections, producing leakage at joints or connections
  • Internal leakage caused by plate or braze damage, producing cross-contamination, loss of refrigerant or abnormal system pressures
Service: Check inlet and outlet temperatures, pressure drop and system performance for signs of fouling or maldistribution. Inspect connections, supports and adjacent pipework for vibration loads, corrosion and leakage. Because the brazed core is not opened like a gasketed plate heat exchanger, cleaning and repair options depend on the contamination type and manufacturer-approved procedures. Verify refrigerant and fluid compatibility before chemical cleaning or changing service. Use the unit nameplate and Alfa Laval documentation for exact pressure, temperature, testing and installation limits.
Spare Parts: There are normally few internal routine spares for a brazed plate heat exchanger because the plate pack is permanently brazed. Useful onboard spares are usually installation-specific items such as connection seals, sensors, valves or a replacement exchanger where system criticality justifies it. Any replacement unit must match the original thermal duty, connection arrangement and approved design conditions.
Use Cases: Marine HVAC chillers, refrigeration plants, heat pumps and packaged thermal systems, as well as corresponding shore-based air-conditioning and refrigeration applications.
Manufacturer Datasheet
Datasheet
AC70-MAX
Model number
AC70-MAX
Plate count (min)
16 plates
Plate count (max)
200 plates
Max flow rate
50.0 m3/h
Design pressure
31 bar
Application
evaporator/condenser, commercial
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
200 plates
Effective flow rate at duty point
50.0 m3/h
Configuration
MAX configuration
Common Failures & Inspection Points
  • Internal fouling or contamination on the fluid side, producing reduced heat transfer and increased pressure drop
  • Restricted refrigerant or liquid distribution, producing uneven temperature profiles, poor capacity or unstable system operation
  • Freezing or abnormal thermal stress caused by unsuitable operating conditions, producing loss of performance or possible internal damage
  • External corrosion, vibration damage or stressed pipe connections, producing leakage at joints or connections
  • Internal leakage caused by plate or braze damage, producing cross-contamination, loss of refrigerant or abnormal system pressures
Service: Check inlet and outlet temperatures, pressure drop and system performance for signs of fouling or maldistribution. Inspect connections, supports and adjacent pipework for vibration loads, corrosion and leakage. Because the brazed core is not opened like a gasketed plate heat exchanger, cleaning and repair options depend on the contamination type and manufacturer-approved procedures. Verify refrigerant and fluid compatibility before chemical cleaning or changing service. Use the unit nameplate and Alfa Laval documentation for exact pressure, temperature, testing and installation limits.
Spare Parts: There are normally few internal routine spares for a brazed plate heat exchanger because the plate pack is permanently brazed. Useful onboard spares are usually installation-specific items such as connection seals, sensors, valves or a replacement exchanger where system criticality justifies it. Any replacement unit must match the original thermal duty, connection arrangement and approved design conditions.
Use Cases: Marine HVAC chillers, refrigeration plants, heat pumps and packaged thermal systems, as well as corresponding shore-based air-conditioning and refrigeration applications.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. AC75
AC75
Model number
AC75
Plate count (min)
16 plates
Plate count (max)
200 plates
Max flow rate
60.0 m3/h
Design pressure
31 bar
Application
evaporator/condenser, commercial
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Common Failures & Inspection Points
  • Internal fouling or contamination on the fluid side, producing reduced heat transfer and increased pressure drop
  • Restricted refrigerant or liquid distribution, producing uneven temperature profiles, poor capacity or unstable system operation
  • Freezing or abnormal thermal stress caused by unsuitable operating conditions, producing loss of performance or possible internal damage
  • External corrosion, vibration damage or stressed pipe connections, producing leakage at joints or connections
  • Internal leakage caused by plate or braze damage, producing cross-contamination, loss of refrigerant or abnormal system pressures
Service: Check inlet and outlet temperatures, pressure drop and system performance for signs of fouling or maldistribution. Inspect connections, supports and adjacent pipework for vibration loads, corrosion and leakage. Because the brazed core is not opened like a gasketed plate heat exchanger, cleaning and repair options depend on the contamination type and manufacturer-approved procedures. Verify refrigerant and fluid compatibility before chemical cleaning or changing service. Use the unit nameplate and Alfa Laval documentation for exact pressure, temperature, testing and installation limits.
Spare Parts: There are normally few internal routine spares for a brazed plate heat exchanger because the plate pack is permanently brazed. Useful onboard spares are usually installation-specific items such as connection seals, sensors, valves or a replacement exchanger where system criticality justifies it. Any replacement unit must match the original thermal duty, connection arrangement and approved design conditions.
Use Cases: Marine HVAC chillers, refrigeration plants, heat pumps and packaged thermal systems, as well as corresponding shore-based air-conditioning and refrigeration applications.
Manufacturer Datasheet
Datasheet
AC75-MAX
Model number
AC75-MAX
Plate count (min)
16 plates
Plate count (max)
200 plates
Max flow rate
60.0 m3/h
Design pressure
31 bar
Application
evaporator/condenser, commercial
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
200 plates
Effective flow rate at duty point
60.0 m3/h
Configuration
MAX configuration
Common Failures & Inspection Points
  • Internal fouling or contamination on the fluid side, producing reduced heat transfer and increased pressure drop
  • Restricted refrigerant or liquid distribution, producing uneven temperature profiles, poor capacity or unstable system operation
  • Freezing or abnormal thermal stress caused by unsuitable operating conditions, producing loss of performance or possible internal damage
  • External corrosion, vibration damage or stressed pipe connections, producing leakage at joints or connections
  • Internal leakage caused by plate or braze damage, producing cross-contamination, loss of refrigerant or abnormal system pressures
Service: Check inlet and outlet temperatures, pressure drop and system performance for signs of fouling or maldistribution. Inspect connections, supports and adjacent pipework for vibration loads, corrosion and leakage. Because the brazed core is not opened like a gasketed plate heat exchanger, cleaning and repair options depend on the contamination type and manufacturer-approved procedures. Verify refrigerant and fluid compatibility before chemical cleaning or changing service. Use the unit nameplate and Alfa Laval documentation for exact pressure, temperature, testing and installation limits.
Spare Parts: There are normally few internal routine spares for a brazed plate heat exchanger because the plate pack is permanently brazed. Useful onboard spares are usually installation-specific items such as connection seals, sensors, valves or a replacement exchanger where system criticality justifies it. Any replacement unit must match the original thermal duty, connection arrangement and approved design conditions.
Use Cases: Marine HVAC chillers, refrigeration plants, heat pumps and packaged thermal systems, as well as corresponding shore-based air-conditioning and refrigeration applications.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. AC90
AC90
Model number
AC90
Plate count (min)
16 plates
Plate count (max)
200 plates
Max flow rate
75.0 m3/h
Design pressure
31 bar
Application
evaporator/condenser, commercial
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Common Failures & Inspection Points
  • Internal fouling or contamination on the fluid side, producing reduced heat transfer and increased pressure drop
  • Restricted refrigerant or liquid distribution, producing uneven temperature profiles, poor capacity or unstable system operation
  • Freezing or abnormal thermal stress caused by unsuitable operating conditions, producing loss of performance or possible internal damage
  • External corrosion, vibration damage or stressed pipe connections, producing leakage at joints or connections
  • Internal leakage caused by plate or braze damage, producing cross-contamination, loss of refrigerant or abnormal system pressures
Service: Check inlet and outlet temperatures, pressure drop and system performance for signs of fouling or maldistribution. Inspect connections, supports and adjacent pipework for vibration loads, corrosion and leakage. Because the brazed core is not opened like a gasketed plate heat exchanger, cleaning and repair options depend on the contamination type and manufacturer-approved procedures. Verify refrigerant and fluid compatibility before chemical cleaning or changing service. Use the unit nameplate and Alfa Laval documentation for exact pressure, temperature, testing and installation limits.
Spare Parts: There are normally few internal routine spares for a brazed plate heat exchanger because the plate pack is permanently brazed. Useful onboard spares are usually installation-specific items such as connection seals, sensors, valves or a replacement exchanger where system criticality justifies it. Any replacement unit must match the original thermal duty, connection arrangement and approved design conditions.
Use Cases: Marine HVAC chillers, refrigeration plants, heat pumps and packaged thermal systems, as well as corresponding shore-based air-conditioning and refrigeration applications.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. AC90-MAX
AC90-MAX
Model number
AC90-MAX
Plate count (min)
16 plates
Plate count (max)
200 plates
Max flow rate
75.0 m3/h
Design pressure
31 bar
Application
evaporator/condenser, commercial
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
200 plates
Effective flow rate at duty point
75.0 m3/h
Configuration
MAX configuration
Common Failures & Inspection Points
  • Internal fouling or contamination on the fluid side, producing reduced heat transfer and increased pressure drop
  • Restricted refrigerant or liquid distribution, producing uneven temperature profiles, poor capacity or unstable system operation
  • Freezing or abnormal thermal stress caused by unsuitable operating conditions, producing loss of performance or possible internal damage
  • External corrosion, vibration damage or stressed pipe connections, producing leakage at joints or connections
  • Internal leakage caused by plate or braze damage, producing cross-contamination, loss of refrigerant or abnormal system pressures
Service: Check inlet and outlet temperatures, pressure drop and system performance for signs of fouling or maldistribution. Inspect connections, supports and adjacent pipework for vibration loads, corrosion and leakage. Because the brazed core is not opened like a gasketed plate heat exchanger, cleaning and repair options depend on the contamination type and manufacturer-approved procedures. Verify refrigerant and fluid compatibility before chemical cleaning or changing service. Use the unit nameplate and Alfa Laval documentation for exact pressure, temperature, testing and installation limits.
Spare Parts: There are normally few internal routine spares for a brazed plate heat exchanger because the plate pack is permanently brazed. Useful onboard spares are usually installation-specific items such as connection seals, sensors, valves or a replacement exchanger where system criticality justifies it. Any replacement unit must match the original thermal duty, connection arrangement and approved design conditions.
Use Cases: Marine HVAC chillers, refrigeration plants, heat pumps and packaged thermal systems, as well as corresponding shore-based air-conditioning and refrigeration applications.
Manufacturer Datasheet
Datasheet
AC112
Model number
AC112
Plate count (min)
20 plates
Plate count (max)
250 plates
Max flow rate
85.0 m3/h
Design pressure
31 bar
Application
evaporator/condenser, large commercial
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Common Failures & Inspection Points
  • Internal fouling or contamination on the fluid side, producing reduced heat transfer and increased pressure drop
  • Restricted refrigerant or liquid distribution, producing uneven temperature profiles, poor capacity or unstable system operation
  • Freezing or abnormal thermal stress caused by unsuitable operating conditions, producing loss of performance or possible internal damage
  • External corrosion, vibration damage or stressed pipe connections, producing leakage at joints or connections
  • Internal leakage caused by plate or braze damage, producing cross-contamination, loss of refrigerant or abnormal system pressures
Service: Check inlet and outlet temperatures, pressure drop and system performance for signs of fouling or maldistribution. Inspect connections, supports and adjacent pipework for vibration loads, corrosion and leakage. Because the brazed core is not opened like a gasketed plate heat exchanger, cleaning and repair options depend on the contamination type and manufacturer-approved procedures. Verify refrigerant and fluid compatibility before chemical cleaning or changing service. Use the unit nameplate and Alfa Laval documentation for exact pressure, temperature, testing and installation limits.
Spare Parts: There are normally few internal routine spares for a brazed plate heat exchanger because the plate pack is permanently brazed. Useful onboard spares are usually installation-specific items such as connection seals, sensors, valves or a replacement exchanger where system criticality justifies it. Any replacement unit must match the original thermal duty, connection arrangement and approved design conditions.
Use Cases: Marine HVAC chillers, refrigeration plants, heat pumps and packaged thermal systems, as well as corresponding shore-based air-conditioning and refrigeration applications.
Manufacturer Datasheet
Datasheet
AC112-MAX
Model number
AC112-MAX
Plate count (min)
20 plates
Plate count (max)
250 plates
Max flow rate
85.0 m3/h
Design pressure
31 bar
Application
evaporator/condenser, large commercial
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
250 plates
Effective flow rate at duty point
85.0 m3/h
Configuration
MAX configuration
Common Failures & Inspection Points
  • Internal fouling or contamination on the fluid side, producing reduced heat transfer and increased pressure drop
  • Restricted refrigerant or liquid distribution, producing uneven temperature profiles, poor capacity or unstable system operation
  • Freezing or abnormal thermal stress caused by unsuitable operating conditions, producing loss of performance or possible internal damage
  • External corrosion, vibration damage or stressed pipe connections, producing leakage at joints or connections
  • Internal leakage caused by plate or braze damage, producing cross-contamination, loss of refrigerant or abnormal system pressures
Service: Check inlet and outlet temperatures, pressure drop and system performance for signs of fouling or maldistribution. Inspect connections, supports and adjacent pipework for vibration loads, corrosion and leakage. Because the brazed core is not opened like a gasketed plate heat exchanger, cleaning and repair options depend on the contamination type and manufacturer-approved procedures. Verify refrigerant and fluid compatibility before chemical cleaning or changing service. Use the unit nameplate and Alfa Laval documentation for exact pressure, temperature, testing and installation limits.
Spare Parts: There are normally few internal routine spares for a brazed plate heat exchanger because the plate pack is permanently brazed. Useful onboard spares are usually installation-specific items such as connection seals, sensors, valves or a replacement exchanger where system criticality justifies it. Any replacement unit must match the original thermal duty, connection arrangement and approved design conditions.
Use Cases: Marine HVAC chillers, refrigeration plants, heat pumps and packaged thermal systems, as well as corresponding shore-based air-conditioning and refrigeration applications.
Manufacturer Datasheet
Datasheet
AC120
Model number
AC120
Plate count (min)
20 plates
Plate count (max)
250 plates
Max flow rate
95.0 m3/h
Design pressure
31 bar
Application
evaporator/condenser, large commercial
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Common Failures & Inspection Points
  • Internal fouling or contamination on the fluid side, producing reduced heat transfer and increased pressure drop
  • Restricted refrigerant or liquid distribution, producing uneven temperature profiles, poor capacity or unstable system operation
  • Freezing or abnormal thermal stress caused by unsuitable operating conditions, producing loss of performance or possible internal damage
  • External corrosion, vibration damage or stressed pipe connections, producing leakage at joints or connections
  • Internal leakage caused by plate or braze damage, producing cross-contamination, loss of refrigerant or abnormal system pressures
Service: Check inlet and outlet temperatures, pressure drop and system performance for signs of fouling or maldistribution. Inspect connections, supports and adjacent pipework for vibration loads, corrosion and leakage. Because the brazed core is not opened like a gasketed plate heat exchanger, cleaning and repair options depend on the contamination type and manufacturer-approved procedures. Verify refrigerant and fluid compatibility before chemical cleaning or changing service. Use the unit nameplate and Alfa Laval documentation for exact pressure, temperature, testing and installation limits.
Spare Parts: There are normally few internal routine spares for a brazed plate heat exchanger because the plate pack is permanently brazed. Useful onboard spares are usually installation-specific items such as connection seals, sensors, valves or a replacement exchanger where system criticality justifies it. Any replacement unit must match the original thermal duty, connection arrangement and approved design conditions.
Use Cases: Marine HVAC chillers, refrigeration plants, heat pumps and packaged thermal systems, as well as corresponding shore-based air-conditioning and refrigeration applications.
Manufacturer Datasheet
Datasheet
AC120-MAX
Model number
AC120-MAX
Plate count (min)
20 plates
Plate count (max)
250 plates
Max flow rate
95.0 m3/h
Design pressure
31 bar
Application
evaporator/condenser, large commercial
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
250 plates
Effective flow rate at duty point
95.0 m3/h
Configuration
MAX configuration
Common Failures & Inspection Points
  • Internal fouling or contamination on the fluid side, producing reduced heat transfer and increased pressure drop
  • Restricted refrigerant or liquid distribution, producing uneven temperature profiles, poor capacity or unstable system operation
  • Freezing or abnormal thermal stress caused by unsuitable operating conditions, producing loss of performance or possible internal damage
  • External corrosion, vibration damage or stressed pipe connections, producing leakage at joints or connections
  • Internal leakage caused by plate or braze damage, producing cross-contamination, loss of refrigerant or abnormal system pressures
Service: Check inlet and outlet temperatures, pressure drop and system performance for signs of fouling or maldistribution. Inspect connections, supports and adjacent pipework for vibration loads, corrosion and leakage. Because the brazed core is not opened like a gasketed plate heat exchanger, cleaning and repair options depend on the contamination type and manufacturer-approved procedures. Verify refrigerant and fluid compatibility before chemical cleaning or changing service. Use the unit nameplate and Alfa Laval documentation for exact pressure, temperature, testing and installation limits.
Spare Parts: There are normally few internal routine spares for a brazed plate heat exchanger because the plate pack is permanently brazed. Useful onboard spares are usually installation-specific items such as connection seals, sensors, valves or a replacement exchanger where system criticality justifies it. Any replacement unit must match the original thermal duty, connection arrangement and approved design conditions.
Use Cases: Marine HVAC chillers, refrigeration plants, heat pumps and packaged thermal systems, as well as corresponding shore-based air-conditioning and refrigeration applications.
Manufacturer Datasheet
Datasheet
AC220
Model number
AC220
Plate count (min)
20 plates
Plate count (max)
250 plates
Max flow rate
150.0 m3/h
Design pressure
31 bar
Application
evaporator/condenser, industrial
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Common Failures & Inspection Points
  • Internal fouling caused by contaminated water, oil or process fluid, indicated by reduced heat-transfer capacity and increasing pressure drop
  • Flow restriction caused by debris, deposits or blocked upstream strainers, indicated by low flow and abnormal operating pressures or temperatures
  • External leakage at connections or brazed joints caused by corrosion, vibration or piping stress, indicated by visible fluid, oil traces or loss of refrigerant charge
  • Internal cross-leakage caused by plate or brazed-joint failure, indicated by contamination between circuits or unexplained loss from one side
  • Freeze damage in evaporator or chilled-fluid service caused by inadequate flow or control malfunction, indicated by sudden leakage or loss of pressure integrity
  • Refrigerant maldistribution or unstable control caused by system-side faults, indicated by fluctuating superheat, capacity or discharge conditions
Service: Monitor inlet and outlet temperatures, pressures and pressure drop for gradual loss of performance. Maintain upstream strainers and fluid quality because internal mechanical access is limited. Check all external connections and the plate-pack perimeter for leakage, corrosion and vibration damage. Ensure connected piping is adequately supported so that excessive loads are not transferred into the exchanger. In evaporator duties, verify freeze protection, minimum-flow safeguards and refrigerant controls. If chemical cleaning is required, use only methods and agents compatible with the exchanger materials and follow manufacturer instructions.
Spare Parts: For critical duties, a complete replacement brazed plate heat exchanger may be more practical than internal spare parts because the plate pack is normally not dismantled. Useful associated spares include connection seals where applicable, strainers or strainer elements, temperature and pressure sensors, control-valve service parts and refrigeration-system control components. Spare strategy should reflect system redundancy and the vessel's trading pattern.
Use Cases: Used in marine HVAC, refrigeration, chiller, heat-pump, engine-cooling and auxiliary liquid-cooling systems where compact size and high heat-transfer efficiency are required. Applications occur on merchant ships, passenger vessels, offshore vessels, workboats and yachts.
Manufacturer Datasheet
Datasheet
AC220-MAX
Model number
AC220-MAX
Plate count (min)
20 plates
Plate count (max)
250 plates
Max flow rate
150.0 m3/h
Design pressure
31 bar
Application
evaporator/condenser, industrial
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
250 plates
Effective flow rate at duty point
150.0 m3/h
Configuration
MAX configuration
Common Failures & Inspection Points
  • Internal fouling caused by contaminated water, oil or process fluid, indicated by reduced heat-transfer capacity and increasing pressure drop
  • Flow restriction caused by debris, deposits or blocked upstream strainers, indicated by low flow and abnormal operating pressures or temperatures
  • External leakage at connections or brazed joints caused by corrosion, vibration or piping stress, indicated by visible fluid, oil traces or loss of refrigerant charge
  • Internal cross-leakage caused by plate or brazed-joint failure, indicated by contamination between circuits or unexplained loss from one side
  • Freeze damage in evaporator or chilled-fluid service caused by inadequate flow or control malfunction, indicated by sudden leakage or loss of pressure integrity
  • Refrigerant maldistribution or unstable control caused by system-side faults, indicated by fluctuating superheat, capacity or discharge conditions
Service: Monitor inlet and outlet temperatures, pressures and pressure drop for gradual loss of performance. Maintain upstream strainers and fluid quality because internal mechanical access is limited. Check all external connections and the plate-pack perimeter for leakage, corrosion and vibration damage. Ensure connected piping is adequately supported so that excessive loads are not transferred into the exchanger. In evaporator duties, verify freeze protection, minimum-flow safeguards and refrigerant controls. If chemical cleaning is required, use only methods and agents compatible with the exchanger materials and follow manufacturer instructions.
Spare Parts: For critical duties, a complete replacement brazed plate heat exchanger may be more practical than internal spare parts because the plate pack is normally not dismantled. Useful associated spares include connection seals where applicable, strainers or strainer elements, temperature and pressure sensors, control-valve service parts and refrigeration-system control components. Spare strategy should reflect system redundancy and the vessel's trading pattern.
Use Cases: Used in marine HVAC, refrigeration, chiller, heat-pump, engine-cooling and auxiliary liquid-cooling systems where compact size and high heat-transfer efficiency are required. Applications occur on merchant ships, passenger vessels, offshore vessels, workboats and yachts.
Manufacturer Datasheet
Datasheet
AC230
Model number
AC230
Plate count (min)
20 plates
Plate count (max)
250 plates
Max flow rate
165.0 m3/h
Design pressure
31 bar
Application
evaporator/condenser, industrial
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Common Failures & Inspection Points
  • Internal fouling caused by contaminated water, oil or process fluid, indicated by reduced heat-transfer capacity and increasing pressure drop
  • Flow restriction caused by debris, deposits or blocked upstream strainers, indicated by low flow and abnormal operating pressures or temperatures
  • External leakage at connections or brazed joints caused by corrosion, vibration or piping stress, indicated by visible fluid, oil traces or loss of refrigerant charge
  • Internal cross-leakage caused by plate or brazed-joint failure, indicated by contamination between circuits or unexplained loss from one side
  • Freeze damage in evaporator or chilled-fluid service caused by inadequate flow or control malfunction, indicated by sudden leakage or loss of pressure integrity
  • Refrigerant maldistribution or unstable control caused by system-side faults, indicated by fluctuating superheat, capacity or discharge conditions
Service: Monitor inlet and outlet temperatures, pressures and pressure drop for gradual loss of performance. Maintain upstream strainers and fluid quality because internal mechanical access is limited. Check all external connections and the plate-pack perimeter for leakage, corrosion and vibration damage. Ensure connected piping is adequately supported so that excessive loads are not transferred into the exchanger. In evaporator duties, verify freeze protection, minimum-flow safeguards and refrigerant controls. If chemical cleaning is required, use only methods and agents compatible with the exchanger materials and follow manufacturer instructions.
Spare Parts: For critical duties, a complete replacement brazed plate heat exchanger may be more practical than internal spare parts because the plate pack is normally not dismantled. Useful associated spares include connection seals where applicable, strainers or strainer elements, temperature and pressure sensors, control-valve service parts and refrigeration-system control components. Spare strategy should reflect system redundancy and the vessel's trading pattern.
Use Cases: Used in marine HVAC, refrigeration, chiller, heat-pump, engine-cooling and auxiliary liquid-cooling systems where compact size and high heat-transfer efficiency are required. Applications occur on merchant ships, passenger vessels, offshore vessels, workboats and yachts.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. AC230-MAX
AC230-MAX
Model number
AC230-MAX
Plate count (min)
20 plates
Plate count (max)
250 plates
Max flow rate
165.0 m3/h
Design pressure
31 bar
Application
evaporator/condenser, industrial
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
250 plates
Effective flow rate at duty point
165.0 m3/h
Configuration
MAX configuration
Common Failures & Inspection Points
  • Internal fouling caused by contaminated water, oil or process fluid, indicated by reduced heat-transfer capacity and increasing pressure drop
  • Flow restriction caused by debris, deposits or blocked upstream strainers, indicated by low flow and abnormal operating pressures or temperatures
  • External leakage at connections or brazed joints caused by corrosion, vibration or piping stress, indicated by visible fluid, oil traces or loss of refrigerant charge
  • Internal cross-leakage caused by plate or brazed-joint failure, indicated by contamination between circuits or unexplained loss from one side
  • Freeze damage in evaporator or chilled-fluid service caused by inadequate flow or control malfunction, indicated by sudden leakage or loss of pressure integrity
  • Refrigerant maldistribution or unstable control caused by system-side faults, indicated by fluctuating superheat, capacity or discharge conditions
Service: Monitor inlet and outlet temperatures, pressures and pressure drop for gradual loss of performance. Maintain upstream strainers and fluid quality because internal mechanical access is limited. Check all external connections and the plate-pack perimeter for leakage, corrosion and vibration damage. Ensure connected piping is adequately supported so that excessive loads are not transferred into the exchanger. In evaporator duties, verify freeze protection, minimum-flow safeguards and refrigerant controls. If chemical cleaning is required, use only methods and agents compatible with the exchanger materials and follow manufacturer instructions.
Spare Parts: For critical duties, a complete replacement brazed plate heat exchanger may be more practical than internal spare parts because the plate pack is normally not dismantled. Useful associated spares include connection seals where applicable, strainers or strainer elements, temperature and pressure sensors, control-valve service parts and refrigeration-system control components. Spare strategy should reflect system redundancy and the vessel's trading pattern.
Use Cases: Used in marine HVAC, refrigeration, chiller, heat-pump, engine-cooling and auxiliary liquid-cooling systems where compact size and high heat-transfer efficiency are required. Applications occur on merchant ships, passenger vessels, offshore vessels, workboats and yachts.
Manufacturer Datasheet
Datasheet
AC232
Model number
AC232
Plate count (min)
20 plates
Plate count (max)
250 plates
Max flow rate
170.0 m3/h
Design pressure
31 bar
Application
evaporator/condenser, industrial
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Common Failures & Inspection Points
  • Internal fouling caused by contaminated water, oil or process fluid, indicated by reduced heat-transfer capacity and increasing pressure drop
  • Flow restriction caused by debris, deposits or blocked upstream strainers, indicated by low flow and abnormal operating pressures or temperatures
  • External leakage at connections or brazed joints caused by corrosion, vibration or piping stress, indicated by visible fluid, oil traces or loss of refrigerant charge
  • Internal cross-leakage caused by plate or brazed-joint failure, indicated by contamination between circuits or unexplained loss from one side
  • Freeze damage in evaporator or chilled-fluid service caused by inadequate flow or control malfunction, indicated by sudden leakage or loss of pressure integrity
  • Refrigerant maldistribution or unstable control caused by system-side faults, indicated by fluctuating superheat, capacity or discharge conditions
Service: Monitor inlet and outlet temperatures, pressures and pressure drop for gradual loss of performance. Maintain upstream strainers and fluid quality because internal mechanical access is limited. Check all external connections and the plate-pack perimeter for leakage, corrosion and vibration damage. Ensure connected piping is adequately supported so that excessive loads are not transferred into the exchanger. In evaporator duties, verify freeze protection, minimum-flow safeguards and refrigerant controls. If chemical cleaning is required, use only methods and agents compatible with the exchanger materials and follow manufacturer instructions.
Spare Parts: For critical duties, a complete replacement brazed plate heat exchanger may be more practical than internal spare parts because the plate pack is normally not dismantled. Useful associated spares include connection seals where applicable, strainers or strainer elements, temperature and pressure sensors, control-valve service parts and refrigeration-system control components. Spare strategy should reflect system redundancy and the vessel's trading pattern.
Use Cases: Used in marine HVAC, refrigeration, chiller, heat-pump, engine-cooling and auxiliary liquid-cooling systems where compact size and high heat-transfer efficiency are required. Applications occur on merchant ships, passenger vessels, offshore vessels, workboats and yachts.
Manufacturer Datasheet
Datasheet
AC232-MAX
Model number
AC232-MAX
Plate count (min)
20 plates
Plate count (max)
250 plates
Max flow rate
170.0 m3/h
Design pressure
31 bar
Application
evaporator/condenser, industrial
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
250 plates
Effective flow rate at duty point
170.0 m3/h
Configuration
MAX configuration
Common Failures & Inspection Points
  • Internal fouling caused by contaminated water, oil or process fluid, indicated by reduced heat-transfer capacity and increasing pressure drop
  • Flow restriction caused by debris, deposits or blocked upstream strainers, indicated by low flow and abnormal operating pressures or temperatures
  • External leakage at connections or brazed joints caused by corrosion, vibration or piping stress, indicated by visible fluid, oil traces or loss of refrigerant charge
  • Internal cross-leakage caused by plate or brazed-joint failure, indicated by contamination between circuits or unexplained loss from one side
  • Freeze damage in evaporator or chilled-fluid service caused by inadequate flow or control malfunction, indicated by sudden leakage or loss of pressure integrity
  • Refrigerant maldistribution or unstable control caused by system-side faults, indicated by fluctuating superheat, capacity or discharge conditions
Service: Monitor inlet and outlet temperatures, pressures and pressure drop for gradual loss of performance. Maintain upstream strainers and fluid quality because internal mechanical access is limited. Check all external connections and the plate-pack perimeter for leakage, corrosion and vibration damage. Ensure connected piping is adequately supported so that excessive loads are not transferred into the exchanger. In evaporator duties, verify freeze protection, minimum-flow safeguards and refrigerant controls. If chemical cleaning is required, use only methods and agents compatible with the exchanger materials and follow manufacturer instructions.
Spare Parts: For critical duties, a complete replacement brazed plate heat exchanger may be more practical than internal spare parts because the plate pack is normally not dismantled. Useful associated spares include connection seals where applicable, strainers or strainer elements, temperature and pressure sensors, control-valve service parts and refrigeration-system control components. Spare strategy should reflect system redundancy and the vessel's trading pattern.
Use Cases: Used in marine HVAC, refrigeration, chiller, heat-pump, engine-cooling and auxiliary liquid-cooling systems where compact size and high heat-transfer efficiency are required. Applications occur on merchant ships, passenger vessels, offshore vessels, workboats and yachts.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. AC300
AC300
Model number
AC300
Plate count (min)
20 plates
Plate count (max)
300 plates
Max flow rate
220.0 m3/h
Design pressure
31 bar
Application
evaporator/condenser, industrial
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Common Failures & Inspection Points
  • Internal fouling caused by contaminated water, oil or process fluid, indicated by reduced heat-transfer capacity and increasing pressure drop
  • Flow restriction caused by debris, deposits or blocked upstream strainers, indicated by low flow and abnormal operating pressures or temperatures
  • External leakage at connections or brazed joints caused by corrosion, vibration or piping stress, indicated by visible fluid, oil traces or loss of refrigerant charge
  • Internal cross-leakage caused by plate or brazed-joint failure, indicated by contamination between circuits or unexplained loss from one side
  • Freeze damage in evaporator or chilled-fluid service caused by inadequate flow or control malfunction, indicated by sudden leakage or loss of pressure integrity
  • Refrigerant maldistribution or unstable control caused by system-side faults, indicated by fluctuating superheat, capacity or discharge conditions
Service: Monitor inlet and outlet temperatures, pressures and pressure drop for gradual loss of performance. Maintain upstream strainers and fluid quality because internal mechanical access is limited. Check all external connections and the plate-pack perimeter for leakage, corrosion and vibration damage. Ensure connected piping is adequately supported so that excessive loads are not transferred into the exchanger. In evaporator duties, verify freeze protection, minimum-flow safeguards and refrigerant controls. If chemical cleaning is required, use only methods and agents compatible with the exchanger materials and follow manufacturer instructions.
Spare Parts: For critical duties, a complete replacement brazed plate heat exchanger may be more practical than internal spare parts because the plate pack is normally not dismantled. Useful associated spares include connection seals where applicable, strainers or strainer elements, temperature and pressure sensors, control-valve service parts and refrigeration-system control components. Spare strategy should reflect system redundancy and the vessel's trading pattern.
Use Cases: Used in marine HVAC, refrigeration, chiller, heat-pump, engine-cooling and auxiliary liquid-cooling systems where compact size and high heat-transfer efficiency are required. Applications occur on merchant ships, passenger vessels, offshore vessels, workboats and yachts.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. AC300-MAX
AC300-MAX
Model number
AC300-MAX
Plate count (min)
20 plates
Plate count (max)
300 plates
Max flow rate
220.0 m3/h
Design pressure
31 bar
Application
evaporator/condenser, industrial
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
300 plates
Effective flow rate at duty point
220.0 m3/h
Configuration
MAX configuration
Common Failures & Inspection Points
  • Internal fouling caused by contaminated water, oil or process fluid, indicated by reduced heat-transfer capacity and increasing pressure drop
  • Flow restriction caused by debris, deposits or blocked upstream strainers, indicated by low flow and abnormal operating pressures or temperatures
  • External leakage at connections or brazed joints caused by corrosion, vibration or piping stress, indicated by visible fluid, oil traces or loss of refrigerant charge
  • Internal cross-leakage caused by plate or brazed-joint failure, indicated by contamination between circuits or unexplained loss from one side
  • Freeze damage in evaporator or chilled-fluid service caused by inadequate flow or control malfunction, indicated by sudden leakage or loss of pressure integrity
  • Refrigerant maldistribution or unstable control caused by system-side faults, indicated by fluctuating superheat, capacity or discharge conditions
Service: Monitor inlet and outlet temperatures, pressures and pressure drop for gradual loss of performance. Maintain upstream strainers and fluid quality because internal mechanical access is limited. Check all external connections and the plate-pack perimeter for leakage, corrosion and vibration damage. Ensure connected piping is adequately supported so that excessive loads are not transferred into the exchanger. In evaporator duties, verify freeze protection, minimum-flow safeguards and refrigerant controls. If chemical cleaning is required, use only methods and agents compatible with the exchanger materials and follow manufacturer instructions.
Spare Parts: For critical duties, a complete replacement brazed plate heat exchanger may be more practical than internal spare parts because the plate pack is normally not dismantled. Useful associated spares include connection seals where applicable, strainers or strainer elements, temperature and pressure sensors, control-valve service parts and refrigeration-system control components. Spare strategy should reflect system redundancy and the vessel's trading pattern.
Use Cases: Used in marine HVAC, refrigeration, chiller, heat-pump, engine-cooling and auxiliary liquid-cooling systems where compact size and high heat-transfer efficiency are required. Applications occur on merchant ships, passenger vessels, offshore vessels, workboats and yachts.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. AC400
AC400
Model number
AC400
Plate count (min)
20 plates
Plate count (max)
300 plates
Max flow rate
280.0 m3/h
Design pressure
31 bar
Application
evaporator/condenser, industrial
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Common Failures & Inspection Points
  • Internal fouling caused by contaminated water, oil or process fluid, indicated by reduced heat-transfer capacity and increasing pressure drop
  • Flow restriction caused by debris, deposits or blocked upstream strainers, indicated by low flow and abnormal operating pressures or temperatures
  • External leakage at connections or brazed joints caused by corrosion, vibration or piping stress, indicated by visible fluid, oil traces or loss of refrigerant charge
  • Internal cross-leakage caused by plate or brazed-joint failure, indicated by contamination between circuits or unexplained loss from one side
  • Freeze damage in evaporator or chilled-fluid service caused by inadequate flow or control malfunction, indicated by sudden leakage or loss of pressure integrity
  • Refrigerant maldistribution or unstable control caused by system-side faults, indicated by fluctuating superheat, capacity or discharge conditions
Service: Monitor inlet and outlet temperatures, pressures and pressure drop for gradual loss of performance. Maintain upstream strainers and fluid quality because internal mechanical access is limited. Check all external connections and the plate-pack perimeter for leakage, corrosion and vibration damage. Ensure connected piping is adequately supported so that excessive loads are not transferred into the exchanger. In evaporator duties, verify freeze protection, minimum-flow safeguards and refrigerant controls. If chemical cleaning is required, use only methods and agents compatible with the exchanger materials and follow manufacturer instructions.
Spare Parts: For critical duties, a complete replacement brazed plate heat exchanger may be more practical than internal spare parts because the plate pack is normally not dismantled. Useful associated spares include connection seals where applicable, strainers or strainer elements, temperature and pressure sensors, control-valve service parts and refrigeration-system control components. Spare strategy should reflect system redundancy and the vessel's trading pattern.
Use Cases: Used in marine HVAC, refrigeration, chiller, heat-pump, engine-cooling and auxiliary liquid-cooling systems where compact size and high heat-transfer efficiency are required. Applications occur on merchant ships, passenger vessels, offshore vessels, workboats and yachts.
Manufacturer Datasheet
Datasheet
AC400-MAX
Model number
AC400-MAX
Plate count (min)
20 plates
Plate count (max)
300 plates
Max flow rate
280.0 m3/h
Design pressure
31 bar
Application
evaporator/condenser, industrial
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
300 plates
Effective flow rate at duty point
280.0 m3/h
Configuration
MAX configuration
Common Failures & Inspection Points
  • Internal fouling caused by contaminated water, oil or process fluid, indicated by reduced heat-transfer capacity and increasing pressure drop
  • Flow restriction caused by debris, deposits or blocked upstream strainers, indicated by low flow and abnormal operating pressures or temperatures
  • External leakage at connections or brazed joints caused by corrosion, vibration or piping stress, indicated by visible fluid, oil traces or loss of refrigerant charge
  • Internal cross-leakage caused by plate or brazed-joint failure, indicated by contamination between circuits or unexplained loss from one side
  • Freeze damage in evaporator or chilled-fluid service caused by inadequate flow or control malfunction, indicated by sudden leakage or loss of pressure integrity
  • Refrigerant maldistribution or unstable control caused by system-side faults, indicated by fluctuating superheat, capacity or discharge conditions
Service: Monitor inlet and outlet temperatures, pressures and pressure drop for gradual loss of performance. Maintain upstream strainers and fluid quality because internal mechanical access is limited. Check all external connections and the plate-pack perimeter for leakage, corrosion and vibration damage. Ensure connected piping is adequately supported so that excessive loads are not transferred into the exchanger. In evaporator duties, verify freeze protection, minimum-flow safeguards and refrigerant controls. If chemical cleaning is required, use only methods and agents compatible with the exchanger materials and follow manufacturer instructions.
Spare Parts: For critical duties, a complete replacement brazed plate heat exchanger may be more practical than internal spare parts because the plate pack is normally not dismantled. Useful associated spares include connection seals where applicable, strainers or strainer elements, temperature and pressure sensors, control-valve service parts and refrigeration-system control components. Spare strategy should reflect system redundancy and the vessel's trading pattern.
Use Cases: Used in marine HVAC, refrigeration, chiller, heat-pump, engine-cooling and auxiliary liquid-cooling systems where compact size and high heat-transfer efficiency are required. Applications occur on merchant ships, passenger vessels, offshore vessels, workboats and yachts.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. AC500
AC500
Model number
AC500
Plate count (min)
20 plates
Plate count (max)
300 plates
Max flow rate
330.0 m3/h
Design pressure
31 bar
Application
evaporator/condenser, large industrial
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Common Failures & Inspection Points
  • Internal fouling caused by contaminated water, oil or process fluid, indicated by reduced heat-transfer capacity and increasing pressure drop
  • Flow restriction caused by debris, deposits or blocked upstream strainers, indicated by low flow and abnormal operating pressures or temperatures
  • External leakage at connections or brazed joints caused by corrosion, vibration or piping stress, indicated by visible fluid, oil traces or loss of refrigerant charge
  • Internal cross-leakage caused by plate or brazed-joint failure, indicated by contamination between circuits or unexplained loss from one side
  • Freeze damage in evaporator or chilled-fluid service caused by inadequate flow or control malfunction, indicated by sudden leakage or loss of pressure integrity
  • Refrigerant maldistribution or unstable control caused by system-side faults, indicated by fluctuating superheat, capacity or discharge conditions
Service: Monitor inlet and outlet temperatures, pressures and pressure drop for gradual loss of performance. Maintain upstream strainers and fluid quality because internal mechanical access is limited. Check all external connections and the plate-pack perimeter for leakage, corrosion and vibration damage. Ensure connected piping is adequately supported so that excessive loads are not transferred into the exchanger. In evaporator duties, verify freeze protection, minimum-flow safeguards and refrigerant controls. If chemical cleaning is required, use only methods and agents compatible with the exchanger materials and follow manufacturer instructions.
Spare Parts: For critical duties, a complete replacement brazed plate heat exchanger may be more practical than internal spare parts because the plate pack is normally not dismantled. Useful associated spares include connection seals where applicable, strainers or strainer elements, temperature and pressure sensors, control-valve service parts and refrigeration-system control components. Spare strategy should reflect system redundancy and the vessel's trading pattern.
Use Cases: Used in marine HVAC, refrigeration, chiller, heat-pump, engine-cooling and auxiliary liquid-cooling systems where compact size and high heat-transfer efficiency are required. Applications occur on merchant ships, passenger vessels, offshore vessels, workboats and yachts.
Manufacturer Datasheet
Datasheet
AC500-MAX
Model number
AC500-MAX
Plate count (min)
20 plates
Plate count (max)
300 plates
Max flow rate
330.0 m3/h
Design pressure
31 bar
Application
evaporator/condenser, large industrial
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
300 plates
Effective flow rate at duty point
330.0 m3/h
Configuration
MAX configuration
Common Failures & Inspection Points
  • Internal fouling caused by contaminated water, oil or process fluid, indicated by reduced heat-transfer capacity and increasing pressure drop
  • Flow restriction caused by debris, deposits or blocked upstream strainers, indicated by low flow and abnormal operating pressures or temperatures
  • External leakage at connections or brazed joints caused by corrosion, vibration or piping stress, indicated by visible fluid, oil traces or loss of refrigerant charge
  • Internal cross-leakage caused by plate or brazed-joint failure, indicated by contamination between circuits or unexplained loss from one side
  • Freeze damage in evaporator or chilled-fluid service caused by inadequate flow or control malfunction, indicated by sudden leakage or loss of pressure integrity
  • Refrigerant maldistribution or unstable control caused by system-side faults, indicated by fluctuating superheat, capacity or discharge conditions
Service: Monitor inlet and outlet temperatures, pressures and pressure drop for gradual loss of performance. Maintain upstream strainers and fluid quality because internal mechanical access is limited. Check all external connections and the plate-pack perimeter for leakage, corrosion and vibration damage. Ensure connected piping is adequately supported so that excessive loads are not transferred into the exchanger. In evaporator duties, verify freeze protection, minimum-flow safeguards and refrigerant controls. If chemical cleaning is required, use only methods and agents compatible with the exchanger materials and follow manufacturer instructions.
Spare Parts: For critical duties, a complete replacement brazed plate heat exchanger may be more practical than internal spare parts because the plate pack is normally not dismantled. Useful associated spares include connection seals where applicable, strainers or strainer elements, temperature and pressure sensors, control-valve service parts and refrigeration-system control components. Spare strategy should reflect system redundancy and the vessel's trading pattern.
Use Cases: Used in marine HVAC, refrigeration, chiller, heat-pump, engine-cooling and auxiliary liquid-cooling systems where compact size and high heat-transfer efficiency are required. Applications occur on merchant ships, passenger vessels, offshore vessels, workboats and yachts.
Manufacturer Datasheet
Datasheet
AC502
Model number
AC502
Plate count (min)
20 plates
Plate count (max)
300 plates
Max flow rate
335.0 m3/h
Design pressure
31 bar
Application
evaporator/condenser, large industrial
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Common Failures & Inspection Points
  • Internal fouling caused by contaminated water, oil or process fluid, indicated by reduced heat-transfer capacity and increasing pressure drop
  • Flow restriction caused by debris, deposits or blocked upstream strainers, indicated by low flow and abnormal operating pressures or temperatures
  • External leakage at connections or brazed joints caused by corrosion, vibration or piping stress, indicated by visible fluid, oil traces or loss of refrigerant charge
  • Internal cross-leakage caused by plate or brazed-joint failure, indicated by contamination between circuits or unexplained loss from one side
  • Freeze damage in evaporator or chilled-fluid service caused by inadequate flow or control malfunction, indicated by sudden leakage or loss of pressure integrity
  • Refrigerant maldistribution or unstable control caused by system-side faults, indicated by fluctuating superheat, capacity or discharge conditions
Service: Monitor inlet and outlet temperatures, pressures and pressure drop for gradual loss of performance. Maintain upstream strainers and fluid quality because internal mechanical access is limited. Check all external connections and the plate-pack perimeter for leakage, corrosion and vibration damage. Ensure connected piping is adequately supported so that excessive loads are not transferred into the exchanger. In evaporator duties, verify freeze protection, minimum-flow safeguards and refrigerant controls. If chemical cleaning is required, use only methods and agents compatible with the exchanger materials and follow manufacturer instructions.
Spare Parts: For critical duties, a complete replacement brazed plate heat exchanger may be more practical than internal spare parts because the plate pack is normally not dismantled. Useful associated spares include connection seals where applicable, strainers or strainer elements, temperature and pressure sensors, control-valve service parts and refrigeration-system control components. Spare strategy should reflect system redundancy and the vessel's trading pattern.
Use Cases: Used in marine HVAC, refrigeration, chiller, heat-pump, engine-cooling and auxiliary liquid-cooling systems where compact size and high heat-transfer efficiency are required. Applications occur on merchant ships, passenger vessels, offshore vessels, workboats and yachts.
Manufacturer Datasheet
Datasheet
AC502-MAX
Model number
AC502-MAX
Plate count (min)
20 plates
Plate count (max)
300 plates
Max flow rate
335.0 m3/h
Design pressure
31 bar
Application
evaporator/condenser, large industrial
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
300 plates
Effective flow rate at duty point
335.0 m3/h
Configuration
MAX configuration
Common Failures & Inspection Points
  • Internal fouling caused by contaminated water, oil or process fluid, indicated by reduced heat-transfer capacity and increasing pressure drop
  • Flow restriction caused by debris, deposits or blocked upstream strainers, indicated by low flow and abnormal operating pressures or temperatures
  • External leakage at connections or brazed joints caused by corrosion, vibration or piping stress, indicated by visible fluid, oil traces or loss of refrigerant charge
  • Internal cross-leakage caused by plate or brazed-joint failure, indicated by contamination between circuits or unexplained loss from one side
  • Freeze damage in evaporator or chilled-fluid service caused by inadequate flow or control malfunction, indicated by sudden leakage or loss of pressure integrity
  • Refrigerant maldistribution or unstable control caused by system-side faults, indicated by fluctuating superheat, capacity or discharge conditions
Service: Monitor inlet and outlet temperatures, pressures and pressure drop for gradual loss of performance. Maintain upstream strainers and fluid quality because internal mechanical access is limited. Check all external connections and the plate-pack perimeter for leakage, corrosion and vibration damage. Ensure connected piping is adequately supported so that excessive loads are not transferred into the exchanger. In evaporator duties, verify freeze protection, minimum-flow safeguards and refrigerant controls. If chemical cleaning is required, use only methods and agents compatible with the exchanger materials and follow manufacturer instructions.
Spare Parts: For critical duties, a complete replacement brazed plate heat exchanger may be more practical than internal spare parts because the plate pack is normally not dismantled. Useful associated spares include connection seals where applicable, strainers or strainer elements, temperature and pressure sensors, control-valve service parts and refrigeration-system control components. Spare strategy should reflect system redundancy and the vessel's trading pattern.
Use Cases: Used in marine HVAC, refrigeration, chiller, heat-pump, engine-cooling and auxiliary liquid-cooling systems where compact size and high heat-transfer efficiency are required. Applications occur on merchant ships, passenger vessels, offshore vessels, workboats and yachts.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. AC540
AC540
Model number
AC540
Plate count (min)
30 plates
Plate count (max)
300 plates
Max flow rate
360.0 m3/h
Design pressure
31 bar
Application
evaporator residential heat pump (low GWP refrigerant)
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Common Failures & Inspection Points
  • Internal fouling caused by contaminated water, oil or process fluid, indicated by reduced heat-transfer capacity and increasing pressure drop
  • Flow restriction caused by debris, deposits or blocked upstream strainers, indicated by low flow and abnormal operating pressures or temperatures
  • External leakage at connections or brazed joints caused by corrosion, vibration or piping stress, indicated by visible fluid, oil traces or loss of refrigerant charge
  • Internal cross-leakage caused by plate or brazed-joint failure, indicated by contamination between circuits or unexplained loss from one side
  • Freeze damage in evaporator or chilled-fluid service caused by inadequate flow or control malfunction, indicated by sudden leakage or loss of pressure integrity
  • Refrigerant maldistribution or unstable control caused by system-side faults, indicated by fluctuating superheat, capacity or discharge conditions
Service: Monitor inlet and outlet temperatures, pressures and pressure drop for gradual loss of performance. Maintain upstream strainers and fluid quality because internal mechanical access is limited. Check all external connections and the plate-pack perimeter for leakage, corrosion and vibration damage. Ensure connected piping is adequately supported so that excessive loads are not transferred into the exchanger. In evaporator duties, verify freeze protection, minimum-flow safeguards and refrigerant controls. If chemical cleaning is required, use only methods and agents compatible with the exchanger materials and follow manufacturer instructions.
Spare Parts: For critical duties, a complete replacement brazed plate heat exchanger may be more practical than internal spare parts because the plate pack is normally not dismantled. Useful associated spares include connection seals where applicable, strainers or strainer elements, temperature and pressure sensors, control-valve service parts and refrigeration-system control components. Spare strategy should reflect system redundancy and the vessel's trading pattern.
Use Cases: Used in marine HVAC, refrigeration, chiller, heat-pump, engine-cooling and auxiliary liquid-cooling systems where compact size and high heat-transfer efficiency are required. Applications occur on merchant ships, passenger vessels, offshore vessels, workboats and yachts.
Manufacturer Datasheet
Datasheet
AC540-MAX
Model number
AC540-MAX
Plate count (min)
30 plates
Plate count (max)
300 plates
Max flow rate
360.0 m3/h
Design pressure
31 bar
Application
evaporator residential heat pump (low GWP refrigerant)
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
300 plates
Effective flow rate at duty point
360.0 m3/h
Configuration
MAX configuration
Common Failures & Inspection Points
  • Internal fouling caused by contaminated water, oil or process fluid, indicated by reduced heat-transfer capacity and increasing pressure drop
  • Flow restriction caused by debris, deposits or blocked upstream strainers, indicated by low flow and abnormal operating pressures or temperatures
  • External leakage at connections or brazed joints caused by corrosion, vibration or piping stress, indicated by visible fluid, oil traces or loss of refrigerant charge
  • Internal cross-leakage caused by plate or brazed-joint failure, indicated by contamination between circuits or unexplained loss from one side
  • Freeze damage in evaporator or chilled-fluid service caused by inadequate flow or control malfunction, indicated by sudden leakage or loss of pressure integrity
  • Refrigerant maldistribution or unstable control caused by system-side faults, indicated by fluctuating superheat, capacity or discharge conditions
Service: Monitor inlet and outlet temperatures, pressures and pressure drop for gradual loss of performance. Maintain upstream strainers and fluid quality because internal mechanical access is limited. Check all external connections and the plate-pack perimeter for leakage, corrosion and vibration damage. Ensure connected piping is adequately supported so that excessive loads are not transferred into the exchanger. In evaporator duties, verify freeze protection, minimum-flow safeguards and refrigerant controls. If chemical cleaning is required, use only methods and agents compatible with the exchanger materials and follow manufacturer instructions.
Spare Parts: For critical duties, a complete replacement brazed plate heat exchanger may be more practical than internal spare parts because the plate pack is normally not dismantled. Useful associated spares include connection seals where applicable, strainers or strainer elements, temperature and pressure sensors, control-valve service parts and refrigeration-system control components. Spare strategy should reflect system redundancy and the vessel's trading pattern.
Use Cases: Used in marine HVAC, refrigeration, chiller, heat-pump, engine-cooling and auxiliary liquid-cooling systems where compact size and high heat-transfer efficiency are required. Applications occur on merchant ships, passenger vessels, offshore vessels, workboats and yachts.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. AC600
AC600
Model number
AC600
Plate count (min)
30 plates
Plate count (max)
350 plates
Max flow rate
410.0 m3/h
Design pressure
31 bar
Application
evaporator/condenser, large industrial
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Common Failures & Inspection Points
  • Internal fouling caused by contaminated water, oil or process fluid, indicated by reduced heat-transfer capacity and increasing pressure drop
  • Flow restriction caused by debris, deposits or blocked upstream strainers, indicated by low flow and abnormal operating pressures or temperatures
  • External leakage at connections or brazed joints caused by corrosion, vibration or piping stress, indicated by visible fluid, oil traces or loss of refrigerant charge
  • Internal cross-leakage caused by plate or brazed-joint failure, indicated by contamination between circuits or unexplained loss from one side
  • Freeze damage in evaporator or chilled-fluid service caused by inadequate flow or control malfunction, indicated by sudden leakage or loss of pressure integrity
  • Refrigerant maldistribution or unstable control caused by system-side faults, indicated by fluctuating superheat, capacity or discharge conditions
Service: Monitor inlet and outlet temperatures, pressures and pressure drop for gradual loss of performance. Maintain upstream strainers and fluid quality because internal mechanical access is limited. Check all external connections and the plate-pack perimeter for leakage, corrosion and vibration damage. Ensure connected piping is adequately supported so that excessive loads are not transferred into the exchanger. In evaporator duties, verify freeze protection, minimum-flow safeguards and refrigerant controls. If chemical cleaning is required, use only methods and agents compatible with the exchanger materials and follow manufacturer instructions.
Spare Parts: For critical duties, a complete replacement brazed plate heat exchanger may be more practical than internal spare parts because the plate pack is normally not dismantled. Useful associated spares include connection seals where applicable, strainers or strainer elements, temperature and pressure sensors, control-valve service parts and refrigeration-system control components. Spare strategy should reflect system redundancy and the vessel's trading pattern.
Use Cases: Used in marine HVAC, refrigeration, chiller, heat-pump, engine-cooling and auxiliary liquid-cooling systems where compact size and high heat-transfer efficiency are required. Applications occur on merchant ships, passenger vessels, offshore vessels, workboats and yachts.
Manufacturer Datasheet
Datasheet
AC600-MAX
Model number
AC600-MAX
Plate count (min)
30 plates
Plate count (max)
350 plates
Max flow rate
410.0 m3/h
Design pressure
31 bar
Application
evaporator/condenser, large industrial
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
350 plates
Effective flow rate at duty point
410.0 m3/h
Configuration
MAX configuration
Common Failures & Inspection Points
  • Internal fouling caused by contaminated water, oil or process fluid, indicated by reduced heat-transfer capacity and increasing pressure drop
  • Flow restriction caused by debris, deposits or blocked upstream strainers, indicated by low flow and abnormal operating pressures or temperatures
  • External leakage at connections or brazed joints caused by corrosion, vibration or piping stress, indicated by visible fluid, oil traces or loss of refrigerant charge
  • Internal cross-leakage caused by plate or brazed-joint failure, indicated by contamination between circuits or unexplained loss from one side
  • Freeze damage in evaporator or chilled-fluid service caused by inadequate flow or control malfunction, indicated by sudden leakage or loss of pressure integrity
  • Refrigerant maldistribution or unstable control caused by system-side faults, indicated by fluctuating superheat, capacity or discharge conditions
Service: Monitor inlet and outlet temperatures, pressures and pressure drop for gradual loss of performance. Maintain upstream strainers and fluid quality because internal mechanical access is limited. Check all external connections and the plate-pack perimeter for leakage, corrosion and vibration damage. Ensure connected piping is adequately supported so that excessive loads are not transferred into the exchanger. In evaporator duties, verify freeze protection, minimum-flow safeguards and refrigerant controls. If chemical cleaning is required, use only methods and agents compatible with the exchanger materials and follow manufacturer instructions.
Spare Parts: For critical duties, a complete replacement brazed plate heat exchanger may be more practical than internal spare parts because the plate pack is normally not dismantled. Useful associated spares include connection seals where applicable, strainers or strainer elements, temperature and pressure sensors, control-valve service parts and refrigeration-system control components. Spare strategy should reflect system redundancy and the vessel's trading pattern.
Use Cases: Used in marine HVAC, refrigeration, chiller, heat-pump, engine-cooling and auxiliary liquid-cooling systems where compact size and high heat-transfer efficiency are required. Applications occur on merchant ships, passenger vessels, offshore vessels, workboats and yachts.
Manufacturer Datasheet
Datasheet
AC700
Model number
AC700
Plate count (min)
30 plates
Plate count (max)
350 plates
Max flow rate
460.0 m3/h
Design pressure
31 bar
Application
evaporator/condenser, large industrial
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Common Failures & Inspection Points
  • Internal fouling caused by contaminated water, oil or process fluid, indicated by reduced heat-transfer capacity and increasing pressure drop
  • Flow restriction caused by debris, deposits or blocked upstream strainers, indicated by low flow and abnormal operating pressures or temperatures
  • External leakage at connections or brazed joints caused by corrosion, vibration or piping stress, indicated by visible fluid, oil traces or loss of refrigerant charge
  • Internal cross-leakage caused by plate or brazed-joint failure, indicated by contamination between circuits or unexplained loss from one side
  • Freeze damage in evaporator or chilled-fluid service caused by inadequate flow or control malfunction, indicated by sudden leakage or loss of pressure integrity
  • Refrigerant maldistribution or unstable control caused by system-side faults, indicated by fluctuating superheat, capacity or discharge conditions
Service: Monitor inlet and outlet temperatures, pressures and pressure drop for gradual loss of performance. Maintain upstream strainers and fluid quality because internal mechanical access is limited. Check all external connections and the plate-pack perimeter for leakage, corrosion and vibration damage. Ensure connected piping is adequately supported so that excessive loads are not transferred into the exchanger. In evaporator duties, verify freeze protection, minimum-flow safeguards and refrigerant controls. If chemical cleaning is required, use only methods and agents compatible with the exchanger materials and follow manufacturer instructions.
Spare Parts: For critical duties, a complete replacement brazed plate heat exchanger may be more practical than internal spare parts because the plate pack is normally not dismantled. Useful associated spares include connection seals where applicable, strainers or strainer elements, temperature and pressure sensors, control-valve service parts and refrigeration-system control components. Spare strategy should reflect system redundancy and the vessel's trading pattern.
Use Cases: Used in marine HVAC, refrigeration, chiller, heat-pump, engine-cooling and auxiliary liquid-cooling systems where compact size and high heat-transfer efficiency are required. Applications occur on merchant ships, passenger vessels, offshore vessels, workboats and yachts.
Manufacturer Datasheet
Datasheet
AC700-MAX
Model number
AC700-MAX
Plate count (min)
30 plates
Plate count (max)
350 plates
Max flow rate
460.0 m3/h
Design pressure
31 bar
Application
evaporator/condenser, large industrial
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
350 plates
Effective flow rate at duty point
460.0 m3/h
Configuration
MAX configuration
Common Failures & Inspection Points
  • Internal fouling caused by contaminated water, oil or process fluid, indicated by reduced heat-transfer capacity and increasing pressure drop
  • Flow restriction caused by debris, deposits or blocked upstream strainers, indicated by low flow and abnormal operating pressures or temperatures
  • External leakage at connections or brazed joints caused by corrosion, vibration or piping stress, indicated by visible fluid, oil traces or loss of refrigerant charge
  • Internal cross-leakage caused by plate or brazed-joint failure, indicated by contamination between circuits or unexplained loss from one side
  • Freeze damage in evaporator or chilled-fluid service caused by inadequate flow or control malfunction, indicated by sudden leakage or loss of pressure integrity
  • Refrigerant maldistribution or unstable control caused by system-side faults, indicated by fluctuating superheat, capacity or discharge conditions
Service: Monitor inlet and outlet temperatures, pressures and pressure drop for gradual loss of performance. Maintain upstream strainers and fluid quality because internal mechanical access is limited. Check all external connections and the plate-pack perimeter for leakage, corrosion and vibration damage. Ensure connected piping is adequately supported so that excessive loads are not transferred into the exchanger. In evaporator duties, verify freeze protection, minimum-flow safeguards and refrigerant controls. If chemical cleaning is required, use only methods and agents compatible with the exchanger materials and follow manufacturer instructions.
Spare Parts: For critical duties, a complete replacement brazed plate heat exchanger may be more practical than internal spare parts because the plate pack is normally not dismantled. Useful associated spares include connection seals where applicable, strainers or strainer elements, temperature and pressure sensors, control-valve service parts and refrigeration-system control components. Spare strategy should reflect system redundancy and the vessel's trading pattern.
Use Cases: Used in marine HVAC, refrigeration, chiller, heat-pump, engine-cooling and auxiliary liquid-cooling systems where compact size and high heat-transfer efficiency are required. Applications occur on merchant ships, passenger vessels, offshore vessels, workboats and yachts.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. AC800
AC800
Model number
AC800
Plate count (min)
30 plates
Plate count (max)
350 plates
Max flow rate
480.0 m3/h
Design pressure
31 bar
Application
evaporator/condenser, large industrial
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Common Failures & Inspection Points
  • Internal fouling caused by contaminated water, oil or process fluid, indicated by reduced heat-transfer capacity and increasing pressure drop
  • Flow restriction caused by debris, deposits or blocked upstream strainers, indicated by low flow and abnormal operating pressures or temperatures
  • External leakage at connections or brazed joints caused by corrosion, vibration or piping stress, indicated by visible fluid, oil traces or loss of refrigerant charge
  • Internal cross-leakage caused by plate or brazed-joint failure, indicated by contamination between circuits or unexplained loss from one side
  • Freeze damage in evaporator or chilled-fluid service caused by inadequate flow or control malfunction, indicated by sudden leakage or loss of pressure integrity
  • Refrigerant maldistribution or unstable control caused by system-side faults, indicated by fluctuating superheat, capacity or discharge conditions
Service: Monitor inlet and outlet temperatures, pressures and pressure drop for gradual loss of performance. Maintain upstream strainers and fluid quality because internal mechanical access is limited. Check all external connections and the plate-pack perimeter for leakage, corrosion and vibration damage. Ensure connected piping is adequately supported so that excessive loads are not transferred into the exchanger. In evaporator duties, verify freeze protection, minimum-flow safeguards and refrigerant controls. If chemical cleaning is required, use only methods and agents compatible with the exchanger materials and follow manufacturer instructions.
Spare Parts: For critical duties, a complete replacement brazed plate heat exchanger may be more practical than internal spare parts because the plate pack is normally not dismantled. Useful associated spares include connection seals where applicable, strainers or strainer elements, temperature and pressure sensors, control-valve service parts and refrigeration-system control components. Spare strategy should reflect system redundancy and the vessel's trading pattern.
Use Cases: Used in marine HVAC, refrigeration, chiller, heat-pump, engine-cooling and auxiliary liquid-cooling systems where compact size and high heat-transfer efficiency are required. Applications occur on merchant ships, passenger vessels, offshore vessels, workboats and yachts.
Manufacturer Datasheet
Datasheet
AC800-MAX
Model number
AC800-MAX
Plate count (min)
30 plates
Plate count (max)
350 plates
Max flow rate
480.0 m3/h
Design pressure
31 bar
Application
evaporator/condenser, large industrial
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
350 plates
Effective flow rate at duty point
480.0 m3/h
Configuration
MAX configuration
Common Failures & Inspection Points
  • Internal fouling caused by contaminated water, oil or process fluid, indicated by reduced heat-transfer capacity and increasing pressure drop
  • Flow restriction caused by debris, deposits or blocked upstream strainers, indicated by low flow and abnormal operating pressures or temperatures
  • External leakage at connections or brazed joints caused by corrosion, vibration or piping stress, indicated by visible fluid, oil traces or loss of refrigerant charge
  • Internal cross-leakage caused by plate or brazed-joint failure, indicated by contamination between circuits or unexplained loss from one side
  • Freeze damage in evaporator or chilled-fluid service caused by inadequate flow or control malfunction, indicated by sudden leakage or loss of pressure integrity
  • Refrigerant maldistribution or unstable control caused by system-side faults, indicated by fluctuating superheat, capacity or discharge conditions
Service: Monitor inlet and outlet temperatures, pressures and pressure drop for gradual loss of performance. Maintain upstream strainers and fluid quality because internal mechanical access is limited. Check all external connections and the plate-pack perimeter for leakage, corrosion and vibration damage. Ensure connected piping is adequately supported so that excessive loads are not transferred into the exchanger. In evaporator duties, verify freeze protection, minimum-flow safeguards and refrigerant controls. If chemical cleaning is required, use only methods and agents compatible with the exchanger materials and follow manufacturer instructions.
Spare Parts: For critical duties, a complete replacement brazed plate heat exchanger may be more practical than internal spare parts because the plate pack is normally not dismantled. Useful associated spares include connection seals where applicable, strainers or strainer elements, temperature and pressure sensors, control-valve service parts and refrigeration-system control components. Spare strategy should reflect system redundancy and the vessel's trading pattern.
Use Cases: Used in marine HVAC, refrigeration, chiller, heat-pump, engine-cooling and auxiliary liquid-cooling systems where compact size and high heat-transfer efficiency are required. Applications occur on merchant ships, passenger vessels, offshore vessels, workboats and yachts.
Manufacturer Datasheet
Datasheet
AC900-MAX
Model number
AC900-MAX
Plate count (min)
10 plates
Plate count (max)
218 plates
Max flow rate
507.0 m3/h
Design pressure
30 bar
Application
evaporator/condenser, air conditioning and refrigeration
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
218 plates
Effective flow rate at duty point
507.0 m3/h
Configuration
MAX configuration
Common Failures & Inspection Points
  • Internal fouling caused by contaminated water, oil or process fluid, indicated by reduced heat-transfer capacity and increasing pressure drop
  • Flow restriction caused by debris, deposits or blocked upstream strainers, indicated by low flow and abnormal operating pressures or temperatures
  • External leakage at connections or brazed joints caused by corrosion, vibration or piping stress, indicated by visible fluid, oil traces or loss of refrigerant charge
  • Internal cross-leakage caused by plate or brazed-joint failure, indicated by contamination between circuits or unexplained loss from one side
  • Freeze damage in evaporator or chilled-fluid service caused by inadequate flow or control malfunction, indicated by sudden leakage or loss of pressure integrity
  • Refrigerant maldistribution or unstable control caused by system-side faults, indicated by fluctuating superheat, capacity or discharge conditions
Service: Monitor inlet and outlet temperatures, pressures and pressure drop for gradual loss of performance. Maintain upstream strainers and fluid quality because internal mechanical access is limited. Check all external connections and the plate-pack perimeter for leakage, corrosion and vibration damage. Ensure connected piping is adequately supported so that excessive loads are not transferred into the exchanger. In evaporator duties, verify freeze protection, minimum-flow safeguards and refrigerant controls. If chemical cleaning is required, use only methods and agents compatible with the exchanger materials and follow manufacturer instructions.
Spare Parts: For critical duties, a complete replacement brazed plate heat exchanger may be more practical than internal spare parts because the plate pack is normally not dismantled. Useful associated spares include connection seals where applicable, strainers or strainer elements, temperature and pressure sensors, control-valve service parts and refrigeration-system control components. Spare strategy should reflect system redundancy and the vessel's trading pattern.
Use Cases: Used in marine HVAC, refrigeration, chiller, heat-pump, engine-cooling and auxiliary liquid-cooling systems where compact size and high heat-transfer efficiency are required. Applications occur on merchant ships, passenger vessels, offshore vessels, workboats and yachts.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. AC1000
AC1000
Model number
AC1000
Plate count (min)
30 plates
Plate count (max)
400 plates
Max flow rate
580.0 m3/h
Design pressure
48 bar
Application
evaporator/condenser, XTRM borehole, refrigerants
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Common Failures & Inspection Points
  • Internal fouling caused by contaminated water, oil or process fluid, indicated by reduced heat-transfer capacity and increasing pressure drop
  • Flow restriction caused by debris, deposits or blocked upstream strainers, indicated by low flow and abnormal operating pressures or temperatures
  • External leakage at connections or brazed joints caused by corrosion, vibration or piping stress, indicated by visible fluid, oil traces or loss of refrigerant charge
  • Internal cross-leakage caused by plate or brazed-joint failure, indicated by contamination between circuits or unexplained loss from one side
  • Freeze damage in evaporator or chilled-fluid service caused by inadequate flow or control malfunction, indicated by sudden leakage or loss of pressure integrity
  • Refrigerant maldistribution or unstable control caused by system-side faults, indicated by fluctuating superheat, capacity or discharge conditions
Service: Monitor inlet and outlet temperatures, pressures and pressure drop for gradual loss of performance. Maintain upstream strainers and fluid quality because internal mechanical access is limited. Check all external connections and the plate-pack perimeter for leakage, corrosion and vibration damage. Ensure connected piping is adequately supported so that excessive loads are not transferred into the exchanger. In evaporator duties, verify freeze protection, minimum-flow safeguards and refrigerant controls. If chemical cleaning is required, use only methods and agents compatible with the exchanger materials and follow manufacturer instructions.
Spare Parts: For critical duties, a complete replacement brazed plate heat exchanger may be more practical than internal spare parts because the plate pack is normally not dismantled. Useful associated spares include connection seals where applicable, strainers or strainer elements, temperature and pressure sensors, control-valve service parts and refrigeration-system control components. Spare strategy should reflect system redundancy and the vessel's trading pattern.
Use Cases: Used in marine HVAC, refrigeration, chiller, heat-pump, engine-cooling and auxiliary liquid-cooling systems where compact size and high heat-transfer efficiency are required. Applications occur on merchant ships, passenger vessels, offshore vessels, workboats and yachts.
Manufacturer Datasheet
Datasheet
AC1000-MAX
Model number
AC1000-MAX
Plate count (min)
30 plates
Plate count (max)
400 plates
Max flow rate
580.0 m3/h
Design pressure
48 bar
Application
evaporator/condenser, XTRM borehole, refrigerants
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
400 plates
Effective flow rate at duty point
580.0 m3/h
Configuration
MAX configuration
Common Failures & Inspection Points
  • Internal fouling caused by contaminated water, oil or process fluid, indicated by reduced heat-transfer capacity and increasing pressure drop
  • Flow restriction caused by debris, deposits or blocked upstream strainers, indicated by low flow and abnormal operating pressures or temperatures
  • External leakage at connections or brazed joints caused by corrosion, vibration or piping stress, indicated by visible fluid, oil traces or loss of refrigerant charge
  • Internal cross-leakage caused by plate or brazed-joint failure, indicated by contamination between circuits or unexplained loss from one side
  • Freeze damage in evaporator or chilled-fluid service caused by inadequate flow or control malfunction, indicated by sudden leakage or loss of pressure integrity
  • Refrigerant maldistribution or unstable control caused by system-side faults, indicated by fluctuating superheat, capacity or discharge conditions
Service: Monitor inlet and outlet temperatures, pressures and pressure drop for gradual loss of performance. Maintain upstream strainers and fluid quality because internal mechanical access is limited. Check all external connections and the plate-pack perimeter for leakage, corrosion and vibration damage. Ensure connected piping is adequately supported so that excessive loads are not transferred into the exchanger. In evaporator duties, verify freeze protection, minimum-flow safeguards and refrigerant controls. If chemical cleaning is required, use only methods and agents compatible with the exchanger materials and follow manufacturer instructions.
Spare Parts: For critical duties, a complete replacement brazed plate heat exchanger may be more practical than internal spare parts because the plate pack is normally not dismantled. Useful associated spares include connection seals where applicable, strainers or strainer elements, temperature and pressure sensors, control-valve service parts and refrigeration-system control components. Spare strategy should reflect system redundancy and the vessel's trading pattern.
Use Cases: Used in marine HVAC, refrigeration, chiller, heat-pump, engine-cooling and auxiliary liquid-cooling systems where compact size and high heat-transfer efficiency are required. Applications occur on merchant ships, passenger vessels, offshore vessels, workboats and yachts.
Manufacturer Datasheet
Datasheet
ACH30
Model number
ACH30
Plate count (min)
10 plates
Plate count (max)
150 plates
Max flow rate
22.0 m3/h
Design pressure
45 bar
Application
high-pressure refrigerant heat pump
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Common Failures & Inspection Points
  • Internal fouling caused by contaminated water, oil or process fluid, indicated by reduced heat-transfer capacity and increasing pressure drop
  • Flow restriction caused by debris, deposits or blocked upstream strainers, indicated by low flow and abnormal operating pressures or temperatures
  • External leakage at connections or brazed joints caused by corrosion, vibration or piping stress, indicated by visible fluid, oil traces or loss of refrigerant charge
  • Internal cross-leakage caused by plate or brazed-joint failure, indicated by contamination between circuits or unexplained loss from one side
  • Freeze damage in evaporator or chilled-fluid service caused by inadequate flow or control malfunction, indicated by sudden leakage or loss of pressure integrity
  • Refrigerant maldistribution or unstable control caused by system-side faults, indicated by fluctuating superheat, capacity or discharge conditions
Service: Monitor inlet and outlet temperatures, pressures and pressure drop for gradual loss of performance. Maintain upstream strainers and fluid quality because internal mechanical access is limited. Check all external connections and the plate-pack perimeter for leakage, corrosion and vibration damage. Ensure connected piping is adequately supported so that excessive loads are not transferred into the exchanger. In evaporator duties, verify freeze protection, minimum-flow safeguards and refrigerant controls. If chemical cleaning is required, use only methods and agents compatible with the exchanger materials and follow manufacturer instructions.
Spare Parts: For critical duties, a complete replacement brazed plate heat exchanger may be more practical than internal spare parts because the plate pack is normally not dismantled. Useful associated spares include connection seals where applicable, strainers or strainer elements, temperature and pressure sensors, control-valve service parts and refrigeration-system control components. Spare strategy should reflect system redundancy and the vessel's trading pattern.
Use Cases: Used in marine HVAC, refrigeration, chiller, heat-pump, engine-cooling and auxiliary liquid-cooling systems where compact size and high heat-transfer efficiency are required. Applications occur on merchant ships, passenger vessels, offshore vessels, workboats and yachts.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. ACH30-30P
ACH30-30P
Model number
ACH30-30P
Plate count (min)
10 plates
Plate count (max)
150 plates
Max flow rate
4.4 m3/h
Design pressure
45 bar
Application
high-pressure refrigerant heat pump
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
31 plates
Effective flow rate at duty point
4.4 m3/h
Configuration
30P configuration
Common Failures & Inspection Points
  • Internal fouling caused by contaminated water, oil or process fluid, indicated by reduced heat-transfer capacity and increasing pressure drop
  • Flow restriction caused by debris, deposits or blocked upstream strainers, indicated by low flow and abnormal operating pressures or temperatures
  • External leakage at connections or brazed joints caused by corrosion, vibration or piping stress, indicated by visible fluid, oil traces or loss of refrigerant charge
  • Internal cross-leakage caused by plate or brazed-joint failure, indicated by contamination between circuits or unexplained loss from one side
  • Freeze damage in evaporator or chilled-fluid service caused by inadequate flow or control malfunction, indicated by sudden leakage or loss of pressure integrity
  • Refrigerant maldistribution or unstable control caused by system-side faults, indicated by fluctuating superheat, capacity or discharge conditions
Service: Monitor inlet and outlet temperatures, pressures and pressure drop for gradual loss of performance. Maintain upstream strainers and fluid quality because internal mechanical access is limited. Check all external connections and the plate-pack perimeter for leakage, corrosion and vibration damage. Ensure connected piping is adequately supported so that excessive loads are not transferred into the exchanger. In evaporator duties, verify freeze protection, minimum-flow safeguards and refrigerant controls. If chemical cleaning is required, use only methods and agents compatible with the exchanger materials and follow manufacturer instructions.
Spare Parts: For critical duties, a complete replacement brazed plate heat exchanger may be more practical than internal spare parts because the plate pack is normally not dismantled. Useful associated spares include connection seals where applicable, strainers or strainer elements, temperature and pressure sensors, control-valve service parts and refrigeration-system control components. Spare strategy should reflect system redundancy and the vessel's trading pattern.
Use Cases: Used in marine HVAC, refrigeration, chiller, heat-pump, engine-cooling and auxiliary liquid-cooling systems where compact size and high heat-transfer efficiency are required. Applications occur on merchant ships, passenger vessels, offshore vessels, workboats and yachts.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. ACH30-60P
ACH30-60P
Model number
ACH30-60P
Plate count (min)
10 plates
Plate count (max)
150 plates
Max flow rate
8.4 m3/h
Design pressure
45 bar
Application
high-pressure refrigerant heat pump
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
52 plates
Effective flow rate at duty point
8.4 m3/h
Configuration
60P configuration
Common Failures & Inspection Points
  • Internal fouling caused by contaminated water, oil or process fluid, indicated by reduced heat-transfer capacity and increasing pressure drop
  • Flow restriction caused by debris, deposits or blocked upstream strainers, indicated by low flow and abnormal operating pressures or temperatures
  • External leakage at connections or brazed joints caused by corrosion, vibration or piping stress, indicated by visible fluid, oil traces or loss of refrigerant charge
  • Internal cross-leakage caused by plate or brazed-joint failure, indicated by contamination between circuits or unexplained loss from one side
  • Freeze damage in evaporator or chilled-fluid service caused by inadequate flow or control malfunction, indicated by sudden leakage or loss of pressure integrity
  • Refrigerant maldistribution or unstable control caused by system-side faults, indicated by fluctuating superheat, capacity or discharge conditions
Service: Monitor inlet and outlet temperatures, pressures and pressure drop for gradual loss of performance. Maintain upstream strainers and fluid quality because internal mechanical access is limited. Check all external connections and the plate-pack perimeter for leakage, corrosion and vibration damage. Ensure connected piping is adequately supported so that excessive loads are not transferred into the exchanger. In evaporator duties, verify freeze protection, minimum-flow safeguards and refrigerant controls. If chemical cleaning is required, use only methods and agents compatible with the exchanger materials and follow manufacturer instructions.
Spare Parts: For critical duties, a complete replacement brazed plate heat exchanger may be more practical than internal spare parts because the plate pack is normally not dismantled. Useful associated spares include connection seals where applicable, strainers or strainer elements, temperature and pressure sensors, control-valve service parts and refrigeration-system control components. Spare strategy should reflect system redundancy and the vessel's trading pattern.
Use Cases: Used in marine HVAC, refrigeration, chiller, heat-pump, engine-cooling and auxiliary liquid-cooling systems where compact size and high heat-transfer efficiency are required. Applications occur on merchant ships, passenger vessels, offshore vessels, workboats and yachts.
Manufacturer Datasheet
Datasheet
ACH30-90P
Model number
ACH30-90P
Plate count (min)
10 plates
Plate count (max)
150 plates
Max flow rate
12.1 m3/h
Design pressure
45 bar
Application
high-pressure refrigerant heat pump
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
73 plates
Effective flow rate at duty point
12.1 m3/h
Configuration
90P configuration
Common Failures & Inspection Points
  • Internal fouling caused by contaminated water, oil or process fluid, indicated by reduced heat-transfer capacity and increasing pressure drop
  • Flow restriction caused by debris, deposits or blocked upstream strainers, indicated by low flow and abnormal operating pressures or temperatures
  • External leakage at connections or brazed joints caused by corrosion, vibration or piping stress, indicated by visible fluid, oil traces or loss of refrigerant charge
  • Internal cross-leakage caused by plate or brazed-joint failure, indicated by contamination between circuits or unexplained loss from one side
  • Freeze damage in evaporator or chilled-fluid service caused by inadequate flow or control malfunction, indicated by sudden leakage or loss of pressure integrity
  • Refrigerant maldistribution or unstable control caused by system-side faults, indicated by fluctuating superheat, capacity or discharge conditions
Service: Monitor inlet and outlet temperatures, pressures and pressure drop for gradual loss of performance. Maintain upstream strainers and fluid quality because internal mechanical access is limited. Check all external connections and the plate-pack perimeter for leakage, corrosion and vibration damage. Ensure connected piping is adequately supported so that excessive loads are not transferred into the exchanger. In evaporator duties, verify freeze protection, minimum-flow safeguards and refrigerant controls. If chemical cleaning is required, use only methods and agents compatible with the exchanger materials and follow manufacturer instructions.
Spare Parts: For critical duties, a complete replacement brazed plate heat exchanger may be more practical than internal spare parts because the plate pack is normally not dismantled. Useful associated spares include connection seals where applicable, strainers or strainer elements, temperature and pressure sensors, control-valve service parts and refrigeration-system control components. Spare strategy should reflect system redundancy and the vessel's trading pattern.
Use Cases: Used in marine HVAC, refrigeration, chiller, heat-pump, engine-cooling and auxiliary liquid-cooling systems where compact size and high heat-transfer efficiency are required. Applications occur on merchant ships, passenger vessels, offshore vessels, workboats and yachts.
Manufacturer Datasheet
Datasheet
ACH30-120P
Model number
ACH30-120P
Plate count (min)
10 plates
Plate count (max)
150 plates
Max flow rate
15.4 m3/h
Design pressure
45 bar
Application
high-pressure refrigerant heat pump
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
94 plates
Effective flow rate at duty point
15.4 m3/h
Configuration
120P configuration
Common Failures & Inspection Points
  • Internal fouling caused by contaminated water, oil or process fluid, indicated by reduced heat-transfer capacity and increasing pressure drop
  • Flow restriction caused by debris, deposits or blocked upstream strainers, indicated by low flow and abnormal operating pressures or temperatures
  • External leakage at connections or brazed joints caused by corrosion, vibration or piping stress, indicated by visible fluid, oil traces or loss of refrigerant charge
  • Internal cross-leakage caused by plate or brazed-joint failure, indicated by contamination between circuits or unexplained loss from one side
  • Freeze damage in evaporator or chilled-fluid service caused by inadequate flow or control malfunction, indicated by sudden leakage or loss of pressure integrity
  • Refrigerant maldistribution or unstable control caused by system-side faults, indicated by fluctuating superheat, capacity or discharge conditions
Service: Monitor inlet and outlet temperatures, pressures and pressure drop for gradual loss of performance. Maintain upstream strainers and fluid quality because internal mechanical access is limited. Check all external connections and the plate-pack perimeter for leakage, corrosion and vibration damage. Ensure connected piping is adequately supported so that excessive loads are not transferred into the exchanger. In evaporator duties, verify freeze protection, minimum-flow safeguards and refrigerant controls. If chemical cleaning is required, use only methods and agents compatible with the exchanger materials and follow manufacturer instructions.
Spare Parts: For critical duties, a complete replacement brazed plate heat exchanger may be more practical than internal spare parts because the plate pack is normally not dismantled. Useful associated spares include connection seals where applicable, strainers or strainer elements, temperature and pressure sensors, control-valve service parts and refrigeration-system control components. Spare strategy should reflect system redundancy and the vessel's trading pattern.
Use Cases: Used in marine HVAC, refrigeration, chiller, heat-pump, engine-cooling and auxiliary liquid-cooling systems where compact size and high heat-transfer efficiency are required. Applications occur on merchant ships, passenger vessels, offshore vessels, workboats and yachts.
Manufacturer Datasheet
Datasheet
ACH30-150P
Model number
ACH30-150P
Plate count (min)
10 plates
Plate count (max)
150 plates
Max flow rate
18.7 m3/h
Design pressure
45 bar
Application
high-pressure refrigerant heat pump
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
115 plates
Effective flow rate at duty point
18.7 m3/h
Configuration
150P configuration
Common Failures & Inspection Points
  • Internal fouling caused by contaminated water, oil or process fluid, indicated by reduced heat-transfer capacity and increasing pressure drop
  • Flow restriction caused by debris, deposits or blocked upstream strainers, indicated by low flow and abnormal operating pressures or temperatures
  • External leakage at connections or brazed joints caused by corrosion, vibration or piping stress, indicated by visible fluid, oil traces or loss of refrigerant charge
  • Internal cross-leakage caused by plate or brazed-joint failure, indicated by contamination between circuits or unexplained loss from one side
  • Freeze damage in evaporator or chilled-fluid service caused by inadequate flow or control malfunction, indicated by sudden leakage or loss of pressure integrity
  • Refrigerant maldistribution or unstable control caused by system-side faults, indicated by fluctuating superheat, capacity or discharge conditions
Service: Monitor inlet and outlet temperatures, pressures and pressure drop for gradual loss of performance. Maintain upstream strainers and fluid quality because internal mechanical access is limited. Check all external connections and the plate-pack perimeter for leakage, corrosion and vibration damage. Ensure connected piping is adequately supported so that excessive loads are not transferred into the exchanger. In evaporator duties, verify freeze protection, minimum-flow safeguards and refrigerant controls. If chemical cleaning is required, use only methods and agents compatible with the exchanger materials and follow manufacturer instructions.
Spare Parts: For critical duties, a complete replacement brazed plate heat exchanger may be more practical than internal spare parts because the plate pack is normally not dismantled. Useful associated spares include connection seals where applicable, strainers or strainer elements, temperature and pressure sensors, control-valve service parts and refrigeration-system control components. Spare strategy should reflect system redundancy and the vessel's trading pattern.
Use Cases: Used in marine HVAC, refrigeration, chiller, heat-pump, engine-cooling and auxiliary liquid-cooling systems where compact size and high heat-transfer efficiency are required. Applications occur on merchant ships, passenger vessels, offshore vessels, workboats and yachts.
Manufacturer Datasheet
Datasheet
ACH30-180P
Model number
ACH30-180P
Plate count (min)
10 plates
Plate count (max)
150 plates
Max flow rate
20.9 m3/h
Design pressure
45 bar
Application
high-pressure refrigerant heat pump
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
136 plates
Effective flow rate at duty point
20.9 m3/h
Configuration
180P configuration
Common Failures & Inspection Points
  • Internal fouling caused by contaminated water, oil or process fluid, indicated by reduced heat-transfer capacity and increasing pressure drop
  • Flow restriction caused by debris, deposits or blocked upstream strainers, indicated by low flow and abnormal operating pressures or temperatures
  • External leakage at connections or brazed joints caused by corrosion, vibration or piping stress, indicated by visible fluid, oil traces or loss of refrigerant charge
  • Internal cross-leakage caused by plate or brazed-joint failure, indicated by contamination between circuits or unexplained loss from one side
  • Freeze damage in evaporator or chilled-fluid service caused by inadequate flow or control malfunction, indicated by sudden leakage or loss of pressure integrity
  • Refrigerant maldistribution or unstable control caused by system-side faults, indicated by fluctuating superheat, capacity or discharge conditions
Service: Monitor inlet and outlet temperatures, pressures and pressure drop for gradual loss of performance. Maintain upstream strainers and fluid quality because internal mechanical access is limited. Check all external connections and the plate-pack perimeter for leakage, corrosion and vibration damage. Ensure connected piping is adequately supported so that excessive loads are not transferred into the exchanger. In evaporator duties, verify freeze protection, minimum-flow safeguards and refrigerant controls. If chemical cleaning is required, use only methods and agents compatible with the exchanger materials and follow manufacturer instructions.
Spare Parts: For critical duties, a complete replacement brazed plate heat exchanger may be more practical than internal spare parts because the plate pack is normally not dismantled. Useful associated spares include connection seals where applicable, strainers or strainer elements, temperature and pressure sensors, control-valve service parts and refrigeration-system control components. Spare strategy should reflect system redundancy and the vessel's trading pattern.
Use Cases: Used in marine HVAC, refrigeration, chiller, heat-pump, engine-cooling and auxiliary liquid-cooling systems where compact size and high heat-transfer efficiency are required. Applications occur on merchant ships, passenger vessels, offshore vessels, workboats and yachts.
Manufacturer Datasheet
Datasheet
ACH30-MAX
Model number
ACH30-MAX
Plate count (min)
10 plates
Plate count (max)
150 plates
Max flow rate
22.0 m3/h
Design pressure
45 bar
Application
high-pressure refrigerant heat pump
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
150 plates
Effective flow rate at duty point
22.0 m3/h
Configuration
MAX configuration
Common Failures & Inspection Points
  • Internal fouling caused by contaminated water, oil or process fluid, indicated by reduced heat-transfer capacity and increasing pressure drop
  • Flow restriction caused by debris, deposits or blocked upstream strainers, indicated by low flow and abnormal operating pressures or temperatures
  • External leakage at connections or brazed joints caused by corrosion, vibration or piping stress, indicated by visible fluid, oil traces or loss of refrigerant charge
  • Internal cross-leakage caused by plate or brazed-joint failure, indicated by contamination between circuits or unexplained loss from one side
  • Freeze damage in evaporator or chilled-fluid service caused by inadequate flow or control malfunction, indicated by sudden leakage or loss of pressure integrity
  • Refrigerant maldistribution or unstable control caused by system-side faults, indicated by fluctuating superheat, capacity or discharge conditions
Service: Monitor inlet and outlet temperatures, pressures and pressure drop for gradual loss of performance. Maintain upstream strainers and fluid quality because internal mechanical access is limited. Check all external connections and the plate-pack perimeter for leakage, corrosion and vibration damage. Ensure connected piping is adequately supported so that excessive loads are not transferred into the exchanger. In evaporator duties, verify freeze protection, minimum-flow safeguards and refrigerant controls. If chemical cleaning is required, use only methods and agents compatible with the exchanger materials and follow manufacturer instructions.
Spare Parts: For critical duties, a complete replacement brazed plate heat exchanger may be more practical than internal spare parts because the plate pack is normally not dismantled. Useful associated spares include connection seals where applicable, strainers or strainer elements, temperature and pressure sensors, control-valve service parts and refrigeration-system control components. Spare strategy should reflect system redundancy and the vessel's trading pattern.
Use Cases: Used in marine HVAC, refrigeration, chiller, heat-pump, engine-cooling and auxiliary liquid-cooling systems where compact size and high heat-transfer efficiency are required. Applications occur on merchant ships, passenger vessels, offshore vessels, workboats and yachts.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. ACH70
ACH70
Model number
ACH70
Plate count (min)
16 plates
Plate count (max)
200 plates
Max flow rate
50.0 m3/h
Design pressure
45 bar
Application
high-pressure refrigerant heat pump
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Common Failures & Inspection Points
  • Internal fouling caused by contaminated water, oil or process fluid, indicated by reduced heat-transfer capacity and increasing pressure drop
  • Flow restriction caused by debris, deposits or blocked upstream strainers, indicated by low flow and abnormal operating pressures or temperatures
  • External leakage at connections or brazed joints caused by corrosion, vibration or piping stress, indicated by visible fluid, oil traces or loss of refrigerant charge
  • Internal cross-leakage caused by plate or brazed-joint failure, indicated by contamination between circuits or unexplained loss from one side
  • Freeze damage in evaporator or chilled-fluid service caused by inadequate flow or control malfunction, indicated by sudden leakage or loss of pressure integrity
  • Refrigerant maldistribution or unstable control caused by system-side faults, indicated by fluctuating superheat, capacity or discharge conditions
Service: Monitor inlet and outlet temperatures, pressures and pressure drop for gradual loss of performance. Maintain upstream strainers and fluid quality because internal mechanical access is limited. Check all external connections and the plate-pack perimeter for leakage, corrosion and vibration damage. Ensure connected piping is adequately supported so that excessive loads are not transferred into the exchanger. In evaporator duties, verify freeze protection, minimum-flow safeguards and refrigerant controls. If chemical cleaning is required, use only methods and agents compatible with the exchanger materials and follow manufacturer instructions.
Spare Parts: For critical duties, a complete replacement brazed plate heat exchanger may be more practical than internal spare parts because the plate pack is normally not dismantled. Useful associated spares include connection seals where applicable, strainers or strainer elements, temperature and pressure sensors, control-valve service parts and refrigeration-system control components. Spare strategy should reflect system redundancy and the vessel's trading pattern.
Use Cases: Used in marine HVAC, refrigeration, chiller, heat-pump, engine-cooling and auxiliary liquid-cooling systems where compact size and high heat-transfer efficiency are required. Applications occur on merchant ships, passenger vessels, offshore vessels, workboats and yachts.
Manufacturer Datasheet
Datasheet
ACH70-30P
Model number
ACH70-30P
Plate count (min)
16 plates
Plate count (max)
200 plates
Max flow rate
10.0 m3/h
Design pressure
45 bar
Application
high-pressure refrigerant heat pump
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
43 plates
Effective flow rate at duty point
10.0 m3/h
Configuration
30P configuration
Common Failures & Inspection Points
  • Internal fouling caused by contaminated water, oil or process fluid, indicated by reduced heat-transfer capacity and increasing pressure drop
  • Flow restriction caused by debris, deposits or blocked upstream strainers, indicated by low flow and abnormal operating pressures or temperatures
  • External leakage at connections or brazed joints caused by corrosion, vibration or piping stress, indicated by visible fluid, oil traces or loss of refrigerant charge
  • Internal cross-leakage caused by plate or brazed-joint failure, indicated by contamination between circuits or unexplained loss from one side
  • Freeze damage in evaporator or chilled-fluid service caused by inadequate flow or control malfunction, indicated by sudden leakage or loss of pressure integrity
  • Refrigerant maldistribution or unstable control caused by system-side faults, indicated by fluctuating superheat, capacity or discharge conditions
Service: Monitor inlet and outlet temperatures, pressures and pressure drop for gradual loss of performance. Maintain upstream strainers and fluid quality because internal mechanical access is limited. Check all external connections and the plate-pack perimeter for leakage, corrosion and vibration damage. Ensure connected piping is adequately supported so that excessive loads are not transferred into the exchanger. In evaporator duties, verify freeze protection, minimum-flow safeguards and refrigerant controls. If chemical cleaning is required, use only methods and agents compatible with the exchanger materials and follow manufacturer instructions.
Spare Parts: For critical duties, a complete replacement brazed plate heat exchanger may be more practical than internal spare parts because the plate pack is normally not dismantled. Useful associated spares include connection seals where applicable, strainers or strainer elements, temperature and pressure sensors, control-valve service parts and refrigeration-system control components. Spare strategy should reflect system redundancy and the vessel's trading pattern.
Use Cases: Used in marine HVAC, refrigeration, chiller, heat-pump, engine-cooling and auxiliary liquid-cooling systems where compact size and high heat-transfer efficiency are required. Applications occur on merchant ships, passenger vessels, offshore vessels, workboats and yachts.
Manufacturer Datasheet
Datasheet
ACH70-60P
Model number
ACH70-60P
Plate count (min)
16 plates
Plate count (max)
200 plates
Max flow rate
19.0 m3/h
Design pressure
45 bar
Application
high-pressure refrigerant heat pump
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
71 plates
Effective flow rate at duty point
19.0 m3/h
Configuration
60P configuration
Common Failures & Inspection Points
  • Internal fouling caused by contaminated water, oil or process fluid, indicated by reduced heat-transfer capacity and increasing pressure drop
  • Flow restriction caused by debris, deposits or blocked upstream strainers, indicated by low flow and abnormal operating pressures or temperatures
  • External leakage at connections or brazed joints caused by corrosion, vibration or piping stress, indicated by visible fluid, oil traces or loss of refrigerant charge
  • Internal cross-leakage caused by plate or brazed-joint failure, indicated by contamination between circuits or unexplained loss from one side
  • Freeze damage in evaporator or chilled-fluid service caused by inadequate flow or control malfunction, indicated by sudden leakage or loss of pressure integrity
  • Refrigerant maldistribution or unstable control caused by system-side faults, indicated by fluctuating superheat, capacity or discharge conditions
Service: Monitor inlet and outlet temperatures, pressures and pressure drop for gradual loss of performance. Maintain upstream strainers and fluid quality because internal mechanical access is limited. Check all external connections and the plate-pack perimeter for leakage, corrosion and vibration damage. Ensure connected piping is adequately supported so that excessive loads are not transferred into the exchanger. In evaporator duties, verify freeze protection, minimum-flow safeguards and refrigerant controls. If chemical cleaning is required, use only methods and agents compatible with the exchanger materials and follow manufacturer instructions.
Spare Parts: For critical duties, a complete replacement brazed plate heat exchanger may be more practical than internal spare parts because the plate pack is normally not dismantled. Useful associated spares include connection seals where applicable, strainers or strainer elements, temperature and pressure sensors, control-valve service parts and refrigeration-system control components. Spare strategy should reflect system redundancy and the vessel's trading pattern.
Use Cases: Used in marine HVAC, refrigeration, chiller, heat-pump, engine-cooling and auxiliary liquid-cooling systems where compact size and high heat-transfer efficiency are required. Applications occur on merchant ships, passenger vessels, offshore vessels, workboats and yachts.
Manufacturer Datasheet
Datasheet
ACH70-90P
Model number
ACH70-90P
Plate count (min)
16 plates
Plate count (max)
200 plates
Max flow rate
27.5 m3/h
Design pressure
45 bar
Application
high-pressure refrigerant heat pump
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
98 plates
Effective flow rate at duty point
27.5 m3/h
Configuration
90P configuration
Common Failures & Inspection Points
  • Internal fouling caused by contaminated water, oil or process fluid, indicated by reduced heat-transfer capacity and increasing pressure drop
  • Flow restriction caused by debris, deposits or blocked upstream strainers, indicated by low flow and abnormal operating pressures or temperatures
  • External leakage at connections or brazed joints caused by corrosion, vibration or piping stress, indicated by visible fluid, oil traces or loss of refrigerant charge
  • Internal cross-leakage caused by plate or brazed-joint failure, indicated by contamination between circuits or unexplained loss from one side
  • Freeze damage in evaporator or chilled-fluid service caused by inadequate flow or control malfunction, indicated by sudden leakage or loss of pressure integrity
  • Refrigerant maldistribution or unstable control caused by system-side faults, indicated by fluctuating superheat, capacity or discharge conditions
Service: Monitor inlet and outlet temperatures, pressures and pressure drop for gradual loss of performance. Maintain upstream strainers and fluid quality because internal mechanical access is limited. Check all external connections and the plate-pack perimeter for leakage, corrosion and vibration damage. Ensure connected piping is adequately supported so that excessive loads are not transferred into the exchanger. In evaporator duties, verify freeze protection, minimum-flow safeguards and refrigerant controls. If chemical cleaning is required, use only methods and agents compatible with the exchanger materials and follow manufacturer instructions.
Spare Parts: For critical duties, a complete replacement brazed plate heat exchanger may be more practical than internal spare parts because the plate pack is normally not dismantled. Useful associated spares include connection seals where applicable, strainers or strainer elements, temperature and pressure sensors, control-valve service parts and refrigeration-system control components. Spare strategy should reflect system redundancy and the vessel's trading pattern.
Use Cases: Used in marine HVAC, refrigeration, chiller, heat-pump, engine-cooling and auxiliary liquid-cooling systems where compact size and high heat-transfer efficiency are required. Applications occur on merchant ships, passenger vessels, offshore vessels, workboats and yachts.
Manufacturer Datasheet
Datasheet
ACH70-120P
Model number
ACH70-120P
Plate count (min)
16 plates
Plate count (max)
200 plates
Max flow rate
35.0 m3/h
Design pressure
45 bar
Application
high-pressure refrigerant heat pump
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
126 plates
Effective flow rate at duty point
35.0 m3/h
Configuration
120P configuration
Common Failures & Inspection Points
  • Internal fouling caused by contaminated water, oil or process fluid, indicated by reduced heat-transfer capacity and increasing pressure drop
  • Flow restriction caused by debris, deposits or blocked upstream strainers, indicated by low flow and abnormal operating pressures or temperatures
  • External leakage at connections or brazed joints caused by corrosion, vibration or piping stress, indicated by visible fluid, oil traces or loss of refrigerant charge
  • Internal cross-leakage caused by plate or brazed-joint failure, indicated by contamination between circuits or unexplained loss from one side
  • Freeze damage in evaporator or chilled-fluid service caused by inadequate flow or control malfunction, indicated by sudden leakage or loss of pressure integrity
  • Refrigerant maldistribution or unstable control caused by system-side faults, indicated by fluctuating superheat, capacity or discharge conditions
Service: Monitor inlet and outlet temperatures, pressures and pressure drop for gradual loss of performance. Maintain upstream strainers and fluid quality because internal mechanical access is limited. Check all external connections and the plate-pack perimeter for leakage, corrosion and vibration damage. Ensure connected piping is adequately supported so that excessive loads are not transferred into the exchanger. In evaporator duties, verify freeze protection, minimum-flow safeguards and refrigerant controls. If chemical cleaning is required, use only methods and agents compatible with the exchanger materials and follow manufacturer instructions.
Spare Parts: For critical duties, a complete replacement brazed plate heat exchanger may be more practical than internal spare parts because the plate pack is normally not dismantled. Useful associated spares include connection seals where applicable, strainers or strainer elements, temperature and pressure sensors, control-valve service parts and refrigeration-system control components. Spare strategy should reflect system redundancy and the vessel's trading pattern.
Use Cases: Used in marine HVAC, refrigeration, chiller, heat-pump, engine-cooling and auxiliary liquid-cooling systems where compact size and high heat-transfer efficiency are required. Applications occur on merchant ships, passenger vessels, offshore vessels, workboats and yachts.
Manufacturer Datasheet
Datasheet
ACH70-150P
Model number
ACH70-150P
Plate count (min)
16 plates
Plate count (max)
200 plates
Max flow rate
42.5 m3/h
Design pressure
45 bar
Application
high-pressure refrigerant heat pump
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
154 plates
Effective flow rate at duty point
42.5 m3/h
Configuration
150P configuration
Common Failures & Inspection Points
  • Internal fouling caused by contaminated water, oil or process fluid, indicated by reduced heat-transfer capacity and increasing pressure drop
  • Flow restriction caused by debris, deposits or blocked upstream strainers, indicated by low flow and abnormal operating pressures or temperatures
  • External leakage at connections or brazed joints caused by corrosion, vibration or piping stress, indicated by visible fluid, oil traces or loss of refrigerant charge
  • Internal cross-leakage caused by plate or brazed-joint failure, indicated by contamination between circuits or unexplained loss from one side
  • Freeze damage in evaporator or chilled-fluid service caused by inadequate flow or control malfunction, indicated by sudden leakage or loss of pressure integrity
  • Refrigerant maldistribution or unstable control caused by system-side faults, indicated by fluctuating superheat, capacity or discharge conditions
Service: Monitor inlet and outlet temperatures, pressures and pressure drop for gradual loss of performance. Maintain upstream strainers and fluid quality because internal mechanical access is limited. Check all external connections and the plate-pack perimeter for leakage, corrosion and vibration damage. Ensure connected piping is adequately supported so that excessive loads are not transferred into the exchanger. In evaporator duties, verify freeze protection, minimum-flow safeguards and refrigerant controls. If chemical cleaning is required, use only methods and agents compatible with the exchanger materials and follow manufacturer instructions.
Spare Parts: For critical duties, a complete replacement brazed plate heat exchanger may be more practical than internal spare parts because the plate pack is normally not dismantled. Useful associated spares include connection seals where applicable, strainers or strainer elements, temperature and pressure sensors, control-valve service parts and refrigeration-system control components. Spare strategy should reflect system redundancy and the vessel's trading pattern.
Use Cases: Used in marine HVAC, refrigeration, chiller, heat-pump, engine-cooling and auxiliary liquid-cooling systems where compact size and high heat-transfer efficiency are required. Applications occur on merchant ships, passenger vessels, offshore vessels, workboats and yachts.
Manufacturer Datasheet
Datasheet
ACH70-180P
Model number
ACH70-180P
Plate count (min)
16 plates
Plate count (max)
200 plates
Max flow rate
47.5 m3/h
Design pressure
45 bar
Application
high-pressure refrigerant heat pump
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
181 plates
Effective flow rate at duty point
47.5 m3/h
Configuration
180P configuration
Common Failures & Inspection Points
  • Internal fouling caused by contaminated water, oil or process fluid, indicated by reduced heat-transfer capacity and increasing pressure drop
  • Flow restriction caused by debris, deposits or blocked upstream strainers, indicated by low flow and abnormal operating pressures or temperatures
  • External leakage at connections or brazed joints caused by corrosion, vibration or piping stress, indicated by visible fluid, oil traces or loss of refrigerant charge
  • Internal cross-leakage caused by plate or brazed-joint failure, indicated by contamination between circuits or unexplained loss from one side
  • Freeze damage in evaporator or chilled-fluid service caused by inadequate flow or control malfunction, indicated by sudden leakage or loss of pressure integrity
  • Refrigerant maldistribution or unstable control caused by system-side faults, indicated by fluctuating superheat, capacity or discharge conditions
Service: Monitor inlet and outlet temperatures, pressures and pressure drop for gradual loss of performance. Maintain upstream strainers and fluid quality because internal mechanical access is limited. Check all external connections and the plate-pack perimeter for leakage, corrosion and vibration damage. Ensure connected piping is adequately supported so that excessive loads are not transferred into the exchanger. In evaporator duties, verify freeze protection, minimum-flow safeguards and refrigerant controls. If chemical cleaning is required, use only methods and agents compatible with the exchanger materials and follow manufacturer instructions.
Spare Parts: For critical duties, a complete replacement brazed plate heat exchanger may be more practical than internal spare parts because the plate pack is normally not dismantled. Useful associated spares include connection seals where applicable, strainers or strainer elements, temperature and pressure sensors, control-valve service parts and refrigeration-system control components. Spare strategy should reflect system redundancy and the vessel's trading pattern.
Use Cases: Used in marine HVAC, refrigeration, chiller, heat-pump, engine-cooling and auxiliary liquid-cooling systems where compact size and high heat-transfer efficiency are required. Applications occur on merchant ships, passenger vessels, offshore vessels, workboats and yachts.
Manufacturer Datasheet
Datasheet
ACH70-MAX
Model number
ACH70-MAX
Plate count (min)
16 plates
Plate count (max)
200 plates
Max flow rate
50.0 m3/h
Design pressure
45 bar
Application
high-pressure refrigerant heat pump
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
200 plates
Effective flow rate at duty point
50.0 m3/h
Configuration
MAX configuration
Common Failures & Inspection Points
  • Internal fouling caused by contaminated water, oil or process fluid, indicated by reduced heat-transfer capacity and increasing pressure drop
  • Flow restriction caused by debris, deposits or blocked upstream strainers, indicated by low flow and abnormal operating pressures or temperatures
  • External leakage at connections or brazed joints caused by corrosion, vibration or piping stress, indicated by visible fluid, oil traces or loss of refrigerant charge
  • Internal cross-leakage caused by plate or brazed-joint failure, indicated by contamination between circuits or unexplained loss from one side
  • Freeze damage in evaporator or chilled-fluid service caused by inadequate flow or control malfunction, indicated by sudden leakage or loss of pressure integrity
  • Refrigerant maldistribution or unstable control caused by system-side faults, indicated by fluctuating superheat, capacity or discharge conditions
Service: Monitor inlet and outlet temperatures, pressures and pressure drop for gradual loss of performance. Maintain upstream strainers and fluid quality because internal mechanical access is limited. Check all external connections and the plate-pack perimeter for leakage, corrosion and vibration damage. Ensure connected piping is adequately supported so that excessive loads are not transferred into the exchanger. In evaporator duties, verify freeze protection, minimum-flow safeguards and refrigerant controls. If chemical cleaning is required, use only methods and agents compatible with the exchanger materials and follow manufacturer instructions.
Spare Parts: For critical duties, a complete replacement brazed plate heat exchanger may be more practical than internal spare parts because the plate pack is normally not dismantled. Useful associated spares include connection seals where applicable, strainers or strainer elements, temperature and pressure sensors, control-valve service parts and refrigeration-system control components. Spare strategy should reflect system redundancy and the vessel's trading pattern.
Use Cases: Used in marine HVAC, refrigeration, chiller, heat-pump, engine-cooling and auxiliary liquid-cooling systems where compact size and high heat-transfer efficiency are required. Applications occur on merchant ships, passenger vessels, offshore vessels, workboats and yachts.
Manufacturer Datasheet
Datasheet
ACH230
Model number
ACH230
Plate count (min)
20 plates
Plate count (max)
250 plates
Max flow rate
165.0 m3/h
Design pressure
45 bar
Application
high-pressure refrigerant heat pump
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Common Failures & Inspection Points
  • Internal fouling caused by contaminated water, oil or process fluid, indicated by reduced heat-transfer capacity and increasing pressure drop
  • Flow restriction caused by debris, deposits or blocked upstream strainers, indicated by low flow and abnormal operating pressures or temperatures
  • External leakage at connections or brazed joints caused by corrosion, vibration or piping stress, indicated by visible fluid, oil traces or loss of refrigerant charge
  • Internal cross-leakage caused by plate or brazed-joint failure, indicated by contamination between circuits or unexplained loss from one side
  • Freeze damage in evaporator or chilled-fluid service caused by inadequate flow or control malfunction, indicated by sudden leakage or loss of pressure integrity
  • Refrigerant maldistribution or unstable control caused by system-side faults, indicated by fluctuating superheat, capacity or discharge conditions
Service: Monitor inlet and outlet temperatures, pressures and pressure drop for gradual loss of performance. Maintain upstream strainers and fluid quality because internal mechanical access is limited. Check all external connections and the plate-pack perimeter for leakage, corrosion and vibration damage. Ensure connected piping is adequately supported so that excessive loads are not transferred into the exchanger. In evaporator duties, verify freeze protection, minimum-flow safeguards and refrigerant controls. If chemical cleaning is required, use only methods and agents compatible with the exchanger materials and follow manufacturer instructions.
Spare Parts: For critical duties, a complete replacement brazed plate heat exchanger may be more practical than internal spare parts because the plate pack is normally not dismantled. Useful associated spares include connection seals where applicable, strainers or strainer elements, temperature and pressure sensors, control-valve service parts and refrigeration-system control components. Spare strategy should reflect system redundancy and the vessel's trading pattern.
Use Cases: Used in marine HVAC, refrigeration, chiller, heat-pump, engine-cooling and auxiliary liquid-cooling systems where compact size and high heat-transfer efficiency are required. Applications occur on merchant ships, passenger vessels, offshore vessels, workboats and yachts.
Manufacturer Datasheet
Datasheet
ACH230-30P
Model number
ACH230-30P
Plate count (min)
20 plates
Plate count (max)
250 plates
Max flow rate
33.0 m3/h
Design pressure
45 bar
Application
high-pressure refrigerant heat pump
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
54 plates
Effective flow rate at duty point
33.0 m3/h
Configuration
30P configuration
Common Failures & Inspection Points
  • Internal fouling caused by contaminated water, oil or process fluid, indicated by reduced heat-transfer capacity and increasing pressure drop
  • Flow restriction caused by debris, deposits or blocked upstream strainers, indicated by low flow and abnormal operating pressures or temperatures
  • External leakage at connections or brazed joints caused by corrosion, vibration or piping stress, indicated by visible fluid, oil traces or loss of refrigerant charge
  • Internal cross-leakage caused by plate or brazed-joint failure, indicated by contamination between circuits or unexplained loss from one side
  • Freeze damage in evaporator or chilled-fluid service caused by inadequate flow or control malfunction, indicated by sudden leakage or loss of pressure integrity
  • Refrigerant maldistribution or unstable control caused by system-side faults, indicated by fluctuating superheat, capacity or discharge conditions
Service: Monitor inlet and outlet temperatures, pressures and pressure drop for gradual loss of performance. Maintain upstream strainers and fluid quality because internal mechanical access is limited. Check all external connections and the plate-pack perimeter for leakage, corrosion and vibration damage. Ensure connected piping is adequately supported so that excessive loads are not transferred into the exchanger. In evaporator duties, verify freeze protection, minimum-flow safeguards and refrigerant controls. If chemical cleaning is required, use only methods and agents compatible with the exchanger materials and follow manufacturer instructions.
Spare Parts: For critical duties, a complete replacement brazed plate heat exchanger may be more practical than internal spare parts because the plate pack is normally not dismantled. Useful associated spares include connection seals where applicable, strainers or strainer elements, temperature and pressure sensors, control-valve service parts and refrigeration-system control components. Spare strategy should reflect system redundancy and the vessel's trading pattern.
Use Cases: Used in marine HVAC, refrigeration, chiller, heat-pump, engine-cooling and auxiliary liquid-cooling systems where compact size and high heat-transfer efficiency are required. Applications occur on merchant ships, passenger vessels, offshore vessels, workboats and yachts.
Manufacturer Datasheet
Datasheet
ACH230-60P
Model number
ACH230-60P
Plate count (min)
20 plates
Plate count (max)
250 plates
Max flow rate
62.7 m3/h
Design pressure
45 bar
Application
high-pressure refrigerant heat pump
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
89 plates
Effective flow rate at duty point
62.7 m3/h
Configuration
60P configuration
Common Failures & Inspection Points
  • Internal fouling caused by contaminated water, oil or process fluid, indicated by reduced heat-transfer capacity and increasing pressure drop
  • Flow restriction caused by debris, deposits or blocked upstream strainers, indicated by low flow and abnormal operating pressures or temperatures
  • External leakage at connections or brazed joints caused by corrosion, vibration or piping stress, indicated by visible fluid, oil traces or loss of refrigerant charge
  • Internal cross-leakage caused by plate or brazed-joint failure, indicated by contamination between circuits or unexplained loss from one side
  • Freeze damage in evaporator or chilled-fluid service caused by inadequate flow or control malfunction, indicated by sudden leakage or loss of pressure integrity
  • Refrigerant maldistribution or unstable control caused by system-side faults, indicated by fluctuating superheat, capacity or discharge conditions
Service: Monitor inlet and outlet temperatures, pressures and pressure drop for gradual loss of performance. Maintain upstream strainers and fluid quality because internal mechanical access is limited. Check all external connections and the plate-pack perimeter for leakage, corrosion and vibration damage. Ensure connected piping is adequately supported so that excessive loads are not transferred into the exchanger. In evaporator duties, verify freeze protection, minimum-flow safeguards and refrigerant controls. If chemical cleaning is required, use only methods and agents compatible with the exchanger materials and follow manufacturer instructions.
Spare Parts: For critical duties, a complete replacement brazed plate heat exchanger may be more practical than internal spare parts because the plate pack is normally not dismantled. Useful associated spares include connection seals where applicable, strainers or strainer elements, temperature and pressure sensors, control-valve service parts and refrigeration-system control components. Spare strategy should reflect system redundancy and the vessel's trading pattern.
Use Cases: Used in marine HVAC, refrigeration, chiller, heat-pump, engine-cooling and auxiliary liquid-cooling systems where compact size and high heat-transfer efficiency are required. Applications occur on merchant ships, passenger vessels, offshore vessels, workboats and yachts.
Manufacturer Datasheet
Datasheet
ACH230-90P
Model number
ACH230-90P
Plate count (min)
20 plates
Plate count (max)
250 plates
Max flow rate
90.8 m3/h
Design pressure
45 bar
Application
high-pressure refrigerant heat pump
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
123 plates
Effective flow rate at duty point
90.8 m3/h
Configuration
90P configuration
Common Failures & Inspection Points
  • Internal fouling caused by contaminated water, oil or process fluid, indicated by reduced heat-transfer capacity and increasing pressure drop
  • Flow restriction caused by debris, deposits or blocked upstream strainers, indicated by low flow and abnormal operating pressures or temperatures
  • External leakage at connections or brazed joints caused by corrosion, vibration or piping stress, indicated by visible fluid, oil traces or loss of refrigerant charge
  • Internal cross-leakage caused by plate or brazed-joint failure, indicated by contamination between circuits or unexplained loss from one side
  • Freeze damage in evaporator or chilled-fluid service caused by inadequate flow or control malfunction, indicated by sudden leakage or loss of pressure integrity
  • Refrigerant maldistribution or unstable control caused by system-side faults, indicated by fluctuating superheat, capacity or discharge conditions
Service: Monitor inlet and outlet temperatures, pressures and pressure drop for gradual loss of performance. Maintain upstream strainers and fluid quality because internal mechanical access is limited. Check all external connections and the plate-pack perimeter for leakage, corrosion and vibration damage. Ensure connected piping is adequately supported so that excessive loads are not transferred into the exchanger. In evaporator duties, verify freeze protection, minimum-flow safeguards and refrigerant controls. If chemical cleaning is required, use only methods and agents compatible with the exchanger materials and follow manufacturer instructions.
Spare Parts: For critical duties, a complete replacement brazed plate heat exchanger may be more practical than internal spare parts because the plate pack is normally not dismantled. Useful associated spares include connection seals where applicable, strainers or strainer elements, temperature and pressure sensors, control-valve service parts and refrigeration-system control components. Spare strategy should reflect system redundancy and the vessel's trading pattern.
Use Cases: Used in marine HVAC, refrigeration, chiller, heat-pump, engine-cooling and auxiliary liquid-cooling systems where compact size and high heat-transfer efficiency are required. Applications occur on merchant ships, passenger vessels, offshore vessels, workboats and yachts.
Manufacturer Datasheet
Datasheet
ACH230-120P
Model number
ACH230-120P
Plate count (min)
20 plates
Plate count (max)
250 plates
Max flow rate
115.5 m3/h
Design pressure
45 bar
Application
high-pressure refrigerant heat pump
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
158 plates
Effective flow rate at duty point
115.5 m3/h
Configuration
120P configuration
Common Failures & Inspection Points
  • Internal fouling caused by contaminated water, oil or process fluid, indicated by reduced heat-transfer capacity and increasing pressure drop
  • Flow restriction caused by debris, deposits or blocked upstream strainers, indicated by low flow and abnormal operating pressures or temperatures
  • External leakage at connections or brazed joints caused by corrosion, vibration or piping stress, indicated by visible fluid, oil traces or loss of refrigerant charge
  • Internal cross-leakage caused by plate or brazed-joint failure, indicated by contamination between circuits or unexplained loss from one side
  • Freeze damage in evaporator or chilled-fluid service caused by inadequate flow or control malfunction, indicated by sudden leakage or loss of pressure integrity
  • Refrigerant maldistribution or unstable control caused by system-side faults, indicated by fluctuating superheat, capacity or discharge conditions
Service: Monitor inlet and outlet temperatures, pressures and pressure drop for gradual loss of performance. Maintain upstream strainers and fluid quality because internal mechanical access is limited. Check all external connections and the plate-pack perimeter for leakage, corrosion and vibration damage. Ensure connected piping is adequately supported so that excessive loads are not transferred into the exchanger. In evaporator duties, verify freeze protection, minimum-flow safeguards and refrigerant controls. If chemical cleaning is required, use only methods and agents compatible with the exchanger materials and follow manufacturer instructions.
Spare Parts: For critical duties, a complete replacement brazed plate heat exchanger may be more practical than internal spare parts because the plate pack is normally not dismantled. Useful associated spares include connection seals where applicable, strainers or strainer elements, temperature and pressure sensors, control-valve service parts and refrigeration-system control components. Spare strategy should reflect system redundancy and the vessel's trading pattern.
Use Cases: Used in marine HVAC, refrigeration, chiller, heat-pump, engine-cooling and auxiliary liquid-cooling systems where compact size and high heat-transfer efficiency are required. Applications occur on merchant ships, passenger vessels, offshore vessels, workboats and yachts.
Manufacturer Datasheet
Datasheet
ACH230-150P
Model number
ACH230-150P
Plate count (min)
20 plates
Plate count (max)
250 plates
Max flow rate
140.2 m3/h
Design pressure
45 bar
Application
high-pressure refrigerant heat pump
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
192 plates
Effective flow rate at duty point
140.2 m3/h
Configuration
150P configuration
Common Failures & Inspection Points
  • Internal fouling caused by contaminated water, oil or process fluid, indicated by reduced heat-transfer capacity and increasing pressure drop
  • Flow restriction caused by debris, deposits or blocked upstream strainers, indicated by low flow and abnormal operating pressures or temperatures
  • External leakage at connections or brazed joints caused by corrosion, vibration or piping stress, indicated by visible fluid, oil traces or loss of refrigerant charge
  • Internal cross-leakage caused by plate or brazed-joint failure, indicated by contamination between circuits or unexplained loss from one side
  • Freeze damage in evaporator or chilled-fluid service caused by inadequate flow or control malfunction, indicated by sudden leakage or loss of pressure integrity
  • Refrigerant maldistribution or unstable control caused by system-side faults, indicated by fluctuating superheat, capacity or discharge conditions
Service: Monitor inlet and outlet temperatures, pressures and pressure drop for gradual loss of performance. Maintain upstream strainers and fluid quality because internal mechanical access is limited. Check all external connections and the plate-pack perimeter for leakage, corrosion and vibration damage. Ensure connected piping is adequately supported so that excessive loads are not transferred into the exchanger. In evaporator duties, verify freeze protection, minimum-flow safeguards and refrigerant controls. If chemical cleaning is required, use only methods and agents compatible with the exchanger materials and follow manufacturer instructions.
Spare Parts: For critical duties, a complete replacement brazed plate heat exchanger may be more practical than internal spare parts because the plate pack is normally not dismantled. Useful associated spares include connection seals where applicable, strainers or strainer elements, temperature and pressure sensors, control-valve service parts and refrigeration-system control components. Spare strategy should reflect system redundancy and the vessel's trading pattern.
Use Cases: Used in marine HVAC, refrigeration, chiller, heat-pump, engine-cooling and auxiliary liquid-cooling systems where compact size and high heat-transfer efficiency are required. Applications occur on merchant ships, passenger vessels, offshore vessels, workboats and yachts.
Manufacturer Datasheet
Datasheet
ACH230-180P
Model number
ACH230-180P
Plate count (min)
20 plates
Plate count (max)
250 plates
Max flow rate
156.8 m3/h
Design pressure
45 bar
Application
high-pressure refrigerant heat pump
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
227 plates
Effective flow rate at duty point
156.8 m3/h
Configuration
180P configuration
Common Failures & Inspection Points
  • Internal fouling caused by contaminated water, oil or process fluid, indicated by reduced heat-transfer capacity and increasing pressure drop
  • Flow restriction caused by debris, deposits or blocked upstream strainers, indicated by low flow and abnormal operating pressures or temperatures
  • External leakage at connections or brazed joints caused by corrosion, vibration or piping stress, indicated by visible fluid, oil traces or loss of refrigerant charge
  • Internal cross-leakage caused by plate or brazed-joint failure, indicated by contamination between circuits or unexplained loss from one side
  • Freeze damage in evaporator or chilled-fluid service caused by inadequate flow or control malfunction, indicated by sudden leakage or loss of pressure integrity
  • Refrigerant maldistribution or unstable control caused by system-side faults, indicated by fluctuating superheat, capacity or discharge conditions
Service: Monitor inlet and outlet temperatures, pressures and pressure drop for gradual loss of performance. Maintain upstream strainers and fluid quality because internal mechanical access is limited. Check all external connections and the plate-pack perimeter for leakage, corrosion and vibration damage. Ensure connected piping is adequately supported so that excessive loads are not transferred into the exchanger. In evaporator duties, verify freeze protection, minimum-flow safeguards and refrigerant controls. If chemical cleaning is required, use only methods and agents compatible with the exchanger materials and follow manufacturer instructions.
Spare Parts: For critical duties, a complete replacement brazed plate heat exchanger may be more practical than internal spare parts because the plate pack is normally not dismantled. Useful associated spares include connection seals where applicable, strainers or strainer elements, temperature and pressure sensors, control-valve service parts and refrigeration-system control components. Spare strategy should reflect system redundancy and the vessel's trading pattern.
Use Cases: Used in marine HVAC, refrigeration, chiller, heat-pump, engine-cooling and auxiliary liquid-cooling systems where compact size and high heat-transfer efficiency are required. Applications occur on merchant ships, passenger vessels, offshore vessels, workboats and yachts.
Manufacturer Datasheet
Datasheet
ACH230-MAX
Model number
ACH230-MAX
Plate count (min)
20 plates
Plate count (max)
250 plates
Max flow rate
165.0 m3/h
Design pressure
45 bar
Application
high-pressure refrigerant heat pump
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
250 plates
Effective flow rate at duty point
165.0 m3/h
Configuration
MAX configuration
Common Failures & Inspection Points
  • Internal fouling caused by contaminated water, oil or process fluid, indicated by reduced heat-transfer capacity and increasing pressure drop
  • Flow restriction caused by debris, deposits or blocked upstream strainers, indicated by low flow and abnormal operating pressures or temperatures
  • External leakage at connections or brazed joints caused by corrosion, vibration or piping stress, indicated by visible fluid, oil traces or loss of refrigerant charge
  • Internal cross-leakage caused by plate or brazed-joint failure, indicated by contamination between circuits or unexplained loss from one side
  • Freeze damage in evaporator or chilled-fluid service caused by inadequate flow or control malfunction, indicated by sudden leakage or loss of pressure integrity
  • Refrigerant maldistribution or unstable control caused by system-side faults, indicated by fluctuating superheat, capacity or discharge conditions
Service: Monitor inlet and outlet temperatures, pressures and pressure drop for gradual loss of performance. Maintain upstream strainers and fluid quality because internal mechanical access is limited. Check all external connections and the plate-pack perimeter for leakage, corrosion and vibration damage. Ensure connected piping is adequately supported so that excessive loads are not transferred into the exchanger. In evaporator duties, verify freeze protection, minimum-flow safeguards and refrigerant controls. If chemical cleaning is required, use only methods and agents compatible with the exchanger materials and follow manufacturer instructions.
Spare Parts: For critical duties, a complete replacement brazed plate heat exchanger may be more practical than internal spare parts because the plate pack is normally not dismantled. Useful associated spares include connection seals where applicable, strainers or strainer elements, temperature and pressure sensors, control-valve service parts and refrigeration-system control components. Spare strategy should reflect system redundancy and the vessel's trading pattern.
Use Cases: Used in marine HVAC, refrigeration, chiller, heat-pump, engine-cooling and auxiliary liquid-cooling systems where compact size and high heat-transfer efficiency are required. Applications occur on merchant ships, passenger vessels, offshore vessels, workboats and yachts.
Manufacturer Datasheet
Datasheet
ACH500
Model number
ACH500
Plate count (min)
20 plates
Plate count (max)
300 plates
Max flow rate
330.0 m3/h
Design pressure
45 bar
Application
high-pressure refrigerant heat pump
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Common Failures & Inspection Points
  • Internal fouling caused by contaminated water, oil or process fluid, indicated by reduced heat-transfer capacity and increasing pressure drop
  • Flow restriction caused by debris, deposits or blocked upstream strainers, indicated by low flow and abnormal operating pressures or temperatures
  • External leakage at connections or brazed joints caused by corrosion, vibration or piping stress, indicated by visible fluid, oil traces or loss of refrigerant charge
  • Internal cross-leakage caused by plate or brazed-joint failure, indicated by contamination between circuits or unexplained loss from one side
  • Freeze damage in evaporator or chilled-fluid service caused by inadequate flow or control malfunction, indicated by sudden leakage or loss of pressure integrity
  • Refrigerant maldistribution or unstable control caused by system-side faults, indicated by fluctuating superheat, capacity or discharge conditions
Service: Monitor inlet and outlet temperatures, pressures and pressure drop for gradual loss of performance. Maintain upstream strainers and fluid quality because internal mechanical access is limited. Check all external connections and the plate-pack perimeter for leakage, corrosion and vibration damage. Ensure connected piping is adequately supported so that excessive loads are not transferred into the exchanger. In evaporator duties, verify freeze protection, minimum-flow safeguards and refrigerant controls. If chemical cleaning is required, use only methods and agents compatible with the exchanger materials and follow manufacturer instructions.
Spare Parts: For critical duties, a complete replacement brazed plate heat exchanger may be more practical than internal spare parts because the plate pack is normally not dismantled. Useful associated spares include connection seals where applicable, strainers or strainer elements, temperature and pressure sensors, control-valve service parts and refrigeration-system control components. Spare strategy should reflect system redundancy and the vessel's trading pattern.
Use Cases: Used in marine HVAC, refrigeration, chiller, heat-pump, engine-cooling and auxiliary liquid-cooling systems where compact size and high heat-transfer efficiency are required. Applications occur on merchant ships, passenger vessels, offshore vessels, workboats and yachts.
Manufacturer Datasheet
Datasheet
ACH500-30P
Model number
ACH500-30P
Plate count (min)
20 plates
Plate count (max)
300 plates
Max flow rate
66.0 m3/h
Design pressure
45 bar
Application
high-pressure refrigerant heat pump
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
62 plates
Effective flow rate at duty point
66.0 m3/h
Configuration
30P configuration
Common Failures & Inspection Points
  • Internal fouling caused by contaminated water, oil or process fluid, indicated by reduced heat-transfer capacity and increasing pressure drop
  • Flow restriction caused by debris, deposits or blocked upstream strainers, indicated by low flow and abnormal operating pressures or temperatures
  • External leakage at connections or brazed joints caused by corrosion, vibration or piping stress, indicated by visible fluid, oil traces or loss of refrigerant charge
  • Internal cross-leakage caused by plate or brazed-joint failure, indicated by contamination between circuits or unexplained loss from one side
  • Freeze damage in evaporator or chilled-fluid service caused by inadequate flow or control malfunction, indicated by sudden leakage or loss of pressure integrity
  • Refrigerant maldistribution or unstable control caused by system-side faults, indicated by fluctuating superheat, capacity or discharge conditions
Service: Monitor inlet and outlet temperatures, pressures and pressure drop for gradual loss of performance. Maintain upstream strainers and fluid quality because internal mechanical access is limited. Check all external connections and the plate-pack perimeter for leakage, corrosion and vibration damage. Ensure connected piping is adequately supported so that excessive loads are not transferred into the exchanger. In evaporator duties, verify freeze protection, minimum-flow safeguards and refrigerant controls. If chemical cleaning is required, use only methods and agents compatible with the exchanger materials and follow manufacturer instructions.
Spare Parts: For critical duties, a complete replacement brazed plate heat exchanger may be more practical than internal spare parts because the plate pack is normally not dismantled. Useful associated spares include connection seals where applicable, strainers or strainer elements, temperature and pressure sensors, control-valve service parts and refrigeration-system control components. Spare strategy should reflect system redundancy and the vessel's trading pattern.
Use Cases: Used in marine HVAC, refrigeration, chiller, heat-pump, engine-cooling and auxiliary liquid-cooling systems where compact size and high heat-transfer efficiency are required. Applications occur on merchant ships, passenger vessels, offshore vessels, workboats and yachts.
Manufacturer Datasheet
Datasheet
ACH500-60P
Model number
ACH500-60P
Plate count (min)
20 plates
Plate count (max)
300 plates
Max flow rate
125.4 m3/h
Design pressure
45 bar
Application
high-pressure refrigerant heat pump
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
104 plates
Effective flow rate at duty point
125.4 m3/h
Configuration
60P configuration
Common Failures & Inspection Points
  • Internal fouling caused by contaminated water, oil or process fluid, indicated by reduced heat-transfer capacity and increasing pressure drop
  • Flow restriction caused by debris, deposits or blocked upstream strainers, indicated by low flow and abnormal operating pressures or temperatures
  • External leakage at connections or brazed joints caused by corrosion, vibration or piping stress, indicated by visible fluid, oil traces or loss of refrigerant charge
  • Internal cross-leakage caused by plate or brazed-joint failure, indicated by contamination between circuits or unexplained loss from one side
  • Freeze damage in evaporator or chilled-fluid service caused by inadequate flow or control malfunction, indicated by sudden leakage or loss of pressure integrity
  • Refrigerant maldistribution or unstable control caused by system-side faults, indicated by fluctuating superheat, capacity or discharge conditions
Service: Monitor inlet and outlet temperatures, pressures and pressure drop for gradual loss of performance. Maintain upstream strainers and fluid quality because internal mechanical access is limited. Check all external connections and the plate-pack perimeter for leakage, corrosion and vibration damage. Ensure connected piping is adequately supported so that excessive loads are not transferred into the exchanger. In evaporator duties, verify freeze protection, minimum-flow safeguards and refrigerant controls. If chemical cleaning is required, use only methods and agents compatible with the exchanger materials and follow manufacturer instructions.
Spare Parts: For critical duties, a complete replacement brazed plate heat exchanger may be more practical than internal spare parts because the plate pack is normally not dismantled. Useful associated spares include connection seals where applicable, strainers or strainer elements, temperature and pressure sensors, control-valve service parts and refrigeration-system control components. Spare strategy should reflect system redundancy and the vessel's trading pattern.
Use Cases: Used in marine HVAC, refrigeration, chiller, heat-pump, engine-cooling and auxiliary liquid-cooling systems where compact size and high heat-transfer efficiency are required. Applications occur on merchant ships, passenger vessels, offshore vessels, workboats and yachts.
Manufacturer Datasheet
Datasheet
ACH500-90P
Model number
ACH500-90P
Plate count (min)
20 plates
Plate count (max)
300 plates
Max flow rate
181.5 m3/h
Design pressure
45 bar
Application
high-pressure refrigerant heat pump
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
146 plates
Effective flow rate at duty point
181.5 m3/h
Configuration
90P configuration
Common Failures & Inspection Points
  • Internal fouling caused by contaminated water, oil or process fluid, indicated by reduced heat-transfer capacity and increasing pressure drop
  • Flow restriction caused by debris, deposits or blocked upstream strainers, indicated by low flow and abnormal operating pressures or temperatures
  • External leakage at connections or brazed joints caused by corrosion, vibration or piping stress, indicated by visible fluid, oil traces or loss of refrigerant charge
  • Internal cross-leakage caused by plate or brazed-joint failure, indicated by contamination between circuits or unexplained loss from one side
  • Freeze damage in evaporator or chilled-fluid service caused by inadequate flow or control malfunction, indicated by sudden leakage or loss of pressure integrity
  • Refrigerant maldistribution or unstable control caused by system-side faults, indicated by fluctuating superheat, capacity or discharge conditions
Service: Monitor inlet and outlet temperatures, pressures and pressure drop for gradual loss of performance. Maintain upstream strainers and fluid quality because internal mechanical access is limited. Check all external connections and the plate-pack perimeter for leakage, corrosion and vibration damage. Ensure connected piping is adequately supported so that excessive loads are not transferred into the exchanger. In evaporator duties, verify freeze protection, minimum-flow safeguards and refrigerant controls. If chemical cleaning is required, use only methods and agents compatible with the exchanger materials and follow manufacturer instructions.
Spare Parts: For critical duties, a complete replacement brazed plate heat exchanger may be more practical than internal spare parts because the plate pack is normally not dismantled. Useful associated spares include connection seals where applicable, strainers or strainer elements, temperature and pressure sensors, control-valve service parts and refrigeration-system control components. Spare strategy should reflect system redundancy and the vessel's trading pattern.
Use Cases: Used in marine HVAC, refrigeration, chiller, heat-pump, engine-cooling and auxiliary liquid-cooling systems where compact size and high heat-transfer efficiency are required. Applications occur on merchant ships, passenger vessels, offshore vessels, workboats and yachts.
Manufacturer Datasheet
Datasheet
ACH500-120P
Model number
ACH500-120P
Plate count (min)
20 plates
Plate count (max)
300 plates
Max flow rate
231.0 m3/h
Design pressure
45 bar
Application
high-pressure refrigerant heat pump
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
188 plates
Effective flow rate at duty point
231.0 m3/h
Configuration
120P configuration
Common Failures & Inspection Points
  • Internal fouling caused by contaminated water, oil or process fluid, indicated by reduced heat-transfer capacity and increasing pressure drop
  • Flow restriction caused by debris, deposits or blocked upstream strainers, indicated by low flow and abnormal operating pressures or temperatures
  • External leakage at connections or brazed joints caused by corrosion, vibration or piping stress, indicated by visible fluid, oil traces or loss of refrigerant charge
  • Internal cross-leakage caused by plate or brazed-joint failure, indicated by contamination between circuits or unexplained loss from one side
  • Freeze damage in evaporator or chilled-fluid service caused by inadequate flow or control malfunction, indicated by sudden leakage or loss of pressure integrity
  • Refrigerant maldistribution or unstable control caused by system-side faults, indicated by fluctuating superheat, capacity or discharge conditions
Service: Monitor inlet and outlet temperatures, pressures and pressure drop for gradual loss of performance. Maintain upstream strainers and fluid quality because internal mechanical access is limited. Check all external connections and the plate-pack perimeter for leakage, corrosion and vibration damage. Ensure connected piping is adequately supported so that excessive loads are not transferred into the exchanger. In evaporator duties, verify freeze protection, minimum-flow safeguards and refrigerant controls. If chemical cleaning is required, use only methods and agents compatible with the exchanger materials and follow manufacturer instructions.
Spare Parts: For critical duties, a complete replacement brazed plate heat exchanger may be more practical than internal spare parts because the plate pack is normally not dismantled. Useful associated spares include connection seals where applicable, strainers or strainer elements, temperature and pressure sensors, control-valve service parts and refrigeration-system control components. Spare strategy should reflect system redundancy and the vessel's trading pattern.
Use Cases: Used in marine HVAC, refrigeration, chiller, heat-pump, engine-cooling and auxiliary liquid-cooling systems where compact size and high heat-transfer efficiency are required. Applications occur on merchant ships, passenger vessels, offshore vessels, workboats and yachts.
Manufacturer Datasheet
Datasheet
ACH500-150P
Model number
ACH500-150P
Plate count (min)
20 plates
Plate count (max)
300 plates
Max flow rate
280.5 m3/h
Design pressure
45 bar
Application
high-pressure refrigerant heat pump
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
230 plates
Effective flow rate at duty point
280.5 m3/h
Configuration
150P configuration
Common Failures & Inspection Points
  • Internal fouling caused by contaminated water, oil or process fluid, indicated by reduced heat-transfer capacity and increasing pressure drop
  • Flow restriction caused by debris, deposits or blocked upstream strainers, indicated by low flow and abnormal operating pressures or temperatures
  • External leakage at connections or brazed joints caused by corrosion, vibration or piping stress, indicated by visible fluid, oil traces or loss of refrigerant charge
  • Internal cross-leakage caused by plate or brazed-joint failure, indicated by contamination between circuits or unexplained loss from one side
  • Freeze damage in evaporator or chilled-fluid service caused by inadequate flow or control malfunction, indicated by sudden leakage or loss of pressure integrity
  • Refrigerant maldistribution or unstable control caused by system-side faults, indicated by fluctuating superheat, capacity or discharge conditions
Service: Monitor inlet and outlet temperatures, pressures and pressure drop for gradual loss of performance. Maintain upstream strainers and fluid quality because internal mechanical access is limited. Check all external connections and the plate-pack perimeter for leakage, corrosion and vibration damage. Ensure connected piping is adequately supported so that excessive loads are not transferred into the exchanger. In evaporator duties, verify freeze protection, minimum-flow safeguards and refrigerant controls. If chemical cleaning is required, use only methods and agents compatible with the exchanger materials and follow manufacturer instructions.
Spare Parts: For critical duties, a complete replacement brazed plate heat exchanger may be more practical than internal spare parts because the plate pack is normally not dismantled. Useful associated spares include connection seals where applicable, strainers or strainer elements, temperature and pressure sensors, control-valve service parts and refrigeration-system control components. Spare strategy should reflect system redundancy and the vessel's trading pattern.
Use Cases: Used in marine HVAC, refrigeration, chiller, heat-pump, engine-cooling and auxiliary liquid-cooling systems where compact size and high heat-transfer efficiency are required. Applications occur on merchant ships, passenger vessels, offshore vessels, workboats and yachts.
Manufacturer Datasheet
Datasheet
ACH500-180P
Model number
ACH500-180P
Plate count (min)
20 plates
Plate count (max)
300 plates
Max flow rate
313.5 m3/h
Design pressure
45 bar
Application
high-pressure refrigerant heat pump
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
272 plates
Effective flow rate at duty point
313.5 m3/h
Configuration
180P configuration
Common Failures & Inspection Points
  • Internal fouling caused by contaminated water, oil or process fluid, indicated by reduced heat-transfer capacity and increasing pressure drop
  • Flow restriction caused by debris, deposits or blocked upstream strainers, indicated by low flow and abnormal operating pressures or temperatures
  • External leakage at connections or brazed joints caused by corrosion, vibration or piping stress, indicated by visible fluid, oil traces or loss of refrigerant charge
  • Internal cross-leakage caused by plate or brazed-joint failure, indicated by contamination between circuits or unexplained loss from one side
  • Freeze damage in evaporator or chilled-fluid service caused by inadequate flow or control malfunction, indicated by sudden leakage or loss of pressure integrity
  • Refrigerant maldistribution or unstable control caused by system-side faults, indicated by fluctuating superheat, capacity or discharge conditions
Service: Monitor inlet and outlet temperatures, pressures and pressure drop for gradual loss of performance. Maintain upstream strainers and fluid quality because internal mechanical access is limited. Check all external connections and the plate-pack perimeter for leakage, corrosion and vibration damage. Ensure connected piping is adequately supported so that excessive loads are not transferred into the exchanger. In evaporator duties, verify freeze protection, minimum-flow safeguards and refrigerant controls. If chemical cleaning is required, use only methods and agents compatible with the exchanger materials and follow manufacturer instructions.
Spare Parts: For critical duties, a complete replacement brazed plate heat exchanger may be more practical than internal spare parts because the plate pack is normally not dismantled. Useful associated spares include connection seals where applicable, strainers or strainer elements, temperature and pressure sensors, control-valve service parts and refrigeration-system control components. Spare strategy should reflect system redundancy and the vessel's trading pattern.
Use Cases: Used in marine HVAC, refrigeration, chiller, heat-pump, engine-cooling and auxiliary liquid-cooling systems where compact size and high heat-transfer efficiency are required. Applications occur on merchant ships, passenger vessels, offshore vessels, workboats and yachts.
Manufacturer Datasheet
Datasheet
ACH500-MAX
Model number
ACH500-MAX
Plate count (min)
20 plates
Plate count (max)
300 plates
Max flow rate
330.0 m3/h
Design pressure
45 bar
Application
high-pressure refrigerant heat pump
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
300 plates
Effective flow rate at duty point
330.0 m3/h
Configuration
MAX configuration
Common Failures & Inspection Points
  • Internal fouling caused by contaminated water, oil or process fluid, indicated by reduced heat-transfer capacity and increasing pressure drop
  • Flow restriction caused by debris, deposits or blocked upstream strainers, indicated by low flow and abnormal operating pressures or temperatures
  • External leakage at connections or brazed joints caused by corrosion, vibration or piping stress, indicated by visible fluid, oil traces or loss of refrigerant charge
  • Internal cross-leakage caused by plate or brazed-joint failure, indicated by contamination between circuits or unexplained loss from one side
  • Freeze damage in evaporator or chilled-fluid service caused by inadequate flow or control malfunction, indicated by sudden leakage or loss of pressure integrity
  • Refrigerant maldistribution or unstable control caused by system-side faults, indicated by fluctuating superheat, capacity or discharge conditions
Service: Monitor inlet and outlet temperatures, pressures and pressure drop for gradual loss of performance. Maintain upstream strainers and fluid quality because internal mechanical access is limited. Check all external connections and the plate-pack perimeter for leakage, corrosion and vibration damage. Ensure connected piping is adequately supported so that excessive loads are not transferred into the exchanger. In evaporator duties, verify freeze protection, minimum-flow safeguards and refrigerant controls. If chemical cleaning is required, use only methods and agents compatible with the exchanger materials and follow manufacturer instructions.
Spare Parts: For critical duties, a complete replacement brazed plate heat exchanger may be more practical than internal spare parts because the plate pack is normally not dismantled. Useful associated spares include connection seals where applicable, strainers or strainer elements, temperature and pressure sensors, control-valve service parts and refrigeration-system control components. Spare strategy should reflect system redundancy and the vessel's trading pattern.
Use Cases: Used in marine HVAC, refrigeration, chiller, heat-pump, engine-cooling and auxiliary liquid-cooling systems where compact size and high heat-transfer efficiency are required. Applications occur on merchant ships, passenger vessels, offshore vessels, workboats and yachts.
Manufacturer Datasheet
Datasheet
ACH900
Model number
ACH900
Plate count (min)
10 plates
Plate count (max)
218 plates
Max flow rate
507.0 m3/h
Design pressure
45 bar
Application
high-pressure refrigerant heat pump, AC and refrigeration
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Common Failures & Inspection Points
  • Internal fouling caused by contaminated water, oil or process fluid, indicated by reduced heat-transfer capacity and increasing pressure drop
  • Flow restriction caused by debris, deposits or blocked upstream strainers, indicated by low flow and abnormal operating pressures or temperatures
  • External leakage at connections or brazed joints caused by corrosion, vibration or piping stress, indicated by visible fluid, oil traces or loss of refrigerant charge
  • Internal cross-leakage caused by plate or brazed-joint failure, indicated by contamination between circuits or unexplained loss from one side
  • Freeze damage in evaporator or chilled-fluid service caused by inadequate flow or control malfunction, indicated by sudden leakage or loss of pressure integrity
  • Refrigerant maldistribution or unstable control caused by system-side faults, indicated by fluctuating superheat, capacity or discharge conditions
Service: Monitor inlet and outlet temperatures, pressures and pressure drop for gradual loss of performance. Maintain upstream strainers and fluid quality because internal mechanical access is limited. Check all external connections and the plate-pack perimeter for leakage, corrosion and vibration damage. Ensure connected piping is adequately supported so that excessive loads are not transferred into the exchanger. In evaporator duties, verify freeze protection, minimum-flow safeguards and refrigerant controls. If chemical cleaning is required, use only methods and agents compatible with the exchanger materials and follow manufacturer instructions.
Spare Parts: For critical duties, a complete replacement brazed plate heat exchanger may be more practical than internal spare parts because the plate pack is normally not dismantled. Useful associated spares include connection seals where applicable, strainers or strainer elements, temperature and pressure sensors, control-valve service parts and refrigeration-system control components. Spare strategy should reflect system redundancy and the vessel's trading pattern.
Use Cases: Used in marine HVAC, refrigeration, chiller, heat-pump, engine-cooling and auxiliary liquid-cooling systems where compact size and high heat-transfer efficiency are required. Applications occur on merchant ships, passenger vessels, offshore vessels, workboats and yachts.
Manufacturer Datasheet
Datasheet
ACH900-30P
Model number
ACH900-30P
Plate count (min)
10 plates
Plate count (max)
218 plates
Max flow rate
101.4 m3/h
Design pressure
45 bar
Application
high-pressure refrigerant heat pump, AC and refrigeration
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
41 plates
Effective flow rate at duty point
101.4 m3/h
Configuration
30P configuration
Common Failures & Inspection Points
  • Internal fouling caused by contaminated water, oil or process fluid, indicated by reduced heat-transfer capacity and increasing pressure drop
  • Flow restriction caused by debris, deposits or blocked upstream strainers, indicated by low flow and abnormal operating pressures or temperatures
  • External leakage at connections or brazed joints caused by corrosion, vibration or piping stress, indicated by visible fluid, oil traces or loss of refrigerant charge
  • Internal cross-leakage caused by plate or brazed-joint failure, indicated by contamination between circuits or unexplained loss from one side
  • Freeze damage in evaporator or chilled-fluid service caused by inadequate flow or control malfunction, indicated by sudden leakage or loss of pressure integrity
  • Refrigerant maldistribution or unstable control caused by system-side faults, indicated by fluctuating superheat, capacity or discharge conditions
Service: Monitor inlet and outlet temperatures, pressures and pressure drop for gradual loss of performance. Maintain upstream strainers and fluid quality because internal mechanical access is limited. Check all external connections and the plate-pack perimeter for leakage, corrosion and vibration damage. Ensure connected piping is adequately supported so that excessive loads are not transferred into the exchanger. In evaporator duties, verify freeze protection, minimum-flow safeguards and refrigerant controls. If chemical cleaning is required, use only methods and agents compatible with the exchanger materials and follow manufacturer instructions.
Spare Parts: For critical duties, a complete replacement brazed plate heat exchanger may be more practical than internal spare parts because the plate pack is normally not dismantled. Useful associated spares include connection seals where applicable, strainers or strainer elements, temperature and pressure sensors, control-valve service parts and refrigeration-system control components. Spare strategy should reflect system redundancy and the vessel's trading pattern.
Use Cases: Used in marine HVAC, refrigeration, chiller, heat-pump, engine-cooling and auxiliary liquid-cooling systems where compact size and high heat-transfer efficiency are required. Applications occur on merchant ships, passenger vessels, offshore vessels, workboats and yachts.
Manufacturer Datasheet
Datasheet
ACH900-60P
Model number
ACH900-60P
Plate count (min)
10 plates
Plate count (max)
218 plates
Max flow rate
192.7 m3/h
Design pressure
45 bar
Application
high-pressure refrigerant heat pump, AC and refrigeration
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
72 plates
Effective flow rate at duty point
192.7 m3/h
Configuration
60P configuration
Common Failures & Inspection Points
  • Internal fouling caused by contaminated water, oil or process fluid, indicated by reduced heat-transfer capacity and increasing pressure drop
  • Flow restriction caused by debris, deposits or blocked upstream strainers, indicated by low flow and abnormal operating pressures or temperatures
  • External leakage at connections or brazed joints caused by corrosion, vibration or piping stress, indicated by visible fluid, oil traces or loss of refrigerant charge
  • Internal cross-leakage caused by plate or brazed-joint failure, indicated by contamination between circuits or unexplained loss from one side
  • Freeze damage in evaporator or chilled-fluid service caused by inadequate flow or control malfunction, indicated by sudden leakage or loss of pressure integrity
  • Refrigerant maldistribution or unstable control caused by system-side faults, indicated by fluctuating superheat, capacity or discharge conditions
Service: Monitor inlet and outlet temperatures, pressures and pressure drop for gradual loss of performance. Maintain upstream strainers and fluid quality because internal mechanical access is limited. Check all external connections and the plate-pack perimeter for leakage, corrosion and vibration damage. Ensure connected piping is adequately supported so that excessive loads are not transferred into the exchanger. In evaporator duties, verify freeze protection, minimum-flow safeguards and refrigerant controls. If chemical cleaning is required, use only methods and agents compatible with the exchanger materials and follow manufacturer instructions.
Spare Parts: For critical duties, a complete replacement brazed plate heat exchanger may be more practical than internal spare parts because the plate pack is normally not dismantled. Useful associated spares include connection seals where applicable, strainers or strainer elements, temperature and pressure sensors, control-valve service parts and refrigeration-system control components. Spare strategy should reflect system redundancy and the vessel's trading pattern.
Use Cases: Used in marine HVAC, refrigeration, chiller, heat-pump, engine-cooling and auxiliary liquid-cooling systems where compact size and high heat-transfer efficiency are required. Applications occur on merchant ships, passenger vessels, offshore vessels, workboats and yachts.
Manufacturer Datasheet
Datasheet
ACH900-90P
Model number
ACH900-90P
Plate count (min)
10 plates
Plate count (max)
218 plates
Max flow rate
278.9 m3/h
Design pressure
45 bar
Application
high-pressure refrigerant heat pump, AC and refrigeration
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
103 plates
Effective flow rate at duty point
278.9 m3/h
Configuration
90P configuration
Common Failures & Inspection Points
  • Internal fouling caused by contaminated water, oil or process fluid, indicated by reduced heat-transfer capacity and increasing pressure drop
  • Flow restriction caused by debris, deposits or blocked upstream strainers, indicated by low flow and abnormal operating pressures or temperatures
  • External leakage at connections or brazed joints caused by corrosion, vibration or piping stress, indicated by visible fluid, oil traces or loss of refrigerant charge
  • Internal cross-leakage caused by plate or brazed-joint failure, indicated by contamination between circuits or unexplained loss from one side
  • Freeze damage in evaporator or chilled-fluid service caused by inadequate flow or control malfunction, indicated by sudden leakage or loss of pressure integrity
  • Refrigerant maldistribution or unstable control caused by system-side faults, indicated by fluctuating superheat, capacity or discharge conditions
Service: Monitor inlet and outlet temperatures, pressures and pressure drop for gradual loss of performance. Maintain upstream strainers and fluid quality because internal mechanical access is limited. Check all external connections and the plate-pack perimeter for leakage, corrosion and vibration damage. Ensure connected piping is adequately supported so that excessive loads are not transferred into the exchanger. In evaporator duties, verify freeze protection, minimum-flow safeguards and refrigerant controls. If chemical cleaning is required, use only methods and agents compatible with the exchanger materials and follow manufacturer instructions.
Spare Parts: For critical duties, a complete replacement brazed plate heat exchanger may be more practical than internal spare parts because the plate pack is normally not dismantled. Useful associated spares include connection seals where applicable, strainers or strainer elements, temperature and pressure sensors, control-valve service parts and refrigeration-system control components. Spare strategy should reflect system redundancy and the vessel's trading pattern.
Use Cases: Used in marine HVAC, refrigeration, chiller, heat-pump, engine-cooling and auxiliary liquid-cooling systems where compact size and high heat-transfer efficiency are required. Applications occur on merchant ships, passenger vessels, offshore vessels, workboats and yachts.
Manufacturer Datasheet
Datasheet
ACH900-120P
Model number
ACH900-120P
Plate count (min)
10 plates
Plate count (max)
218 plates
Max flow rate
354.9 m3/h
Design pressure
45 bar
Application
high-pressure refrigerant heat pump, AC and refrigeration
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
134 plates
Effective flow rate at duty point
354.9 m3/h
Configuration
120P configuration
Common Failures & Inspection Points
  • Internal fouling caused by contaminated water, oil or process fluid, indicated by reduced heat-transfer capacity and increasing pressure drop
  • Flow restriction caused by debris, deposits or blocked upstream strainers, indicated by low flow and abnormal operating pressures or temperatures
  • External leakage at connections or brazed joints caused by corrosion, vibration or piping stress, indicated by visible fluid, oil traces or loss of refrigerant charge
  • Internal cross-leakage caused by plate or brazed-joint failure, indicated by contamination between circuits or unexplained loss from one side
  • Freeze damage in evaporator or chilled-fluid service caused by inadequate flow or control malfunction, indicated by sudden leakage or loss of pressure integrity
  • Refrigerant maldistribution or unstable control caused by system-side faults, indicated by fluctuating superheat, capacity or discharge conditions
Service: Monitor inlet and outlet temperatures, pressures and pressure drop for gradual loss of performance. Maintain upstream strainers and fluid quality because internal mechanical access is limited. Check all external connections and the plate-pack perimeter for leakage, corrosion and vibration damage. Ensure connected piping is adequately supported so that excessive loads are not transferred into the exchanger. In evaporator duties, verify freeze protection, minimum-flow safeguards and refrigerant controls. If chemical cleaning is required, use only methods and agents compatible with the exchanger materials and follow manufacturer instructions.
Spare Parts: For critical duties, a complete replacement brazed plate heat exchanger may be more practical than internal spare parts because the plate pack is normally not dismantled. Useful associated spares include connection seals where applicable, strainers or strainer elements, temperature and pressure sensors, control-valve service parts and refrigeration-system control components. Spare strategy should reflect system redundancy and the vessel's trading pattern.
Use Cases: Used in marine HVAC, refrigeration, chiller, heat-pump, engine-cooling and auxiliary liquid-cooling systems where compact size and high heat-transfer efficiency are required. Applications occur on merchant ships, passenger vessels, offshore vessels, workboats and yachts.
Manufacturer Datasheet
Datasheet
ACH900-150P
Model number
ACH900-150P
Plate count (min)
10 plates
Plate count (max)
218 plates
Max flow rate
430.9 m3/h
Design pressure
45 bar
Application
high-pressure refrigerant heat pump, AC and refrigeration
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
166 plates
Effective flow rate at duty point
430.9 m3/h
Configuration
150P configuration
Common Failures & Inspection Points
  • Internal fouling caused by contaminated water, oil or process fluid, indicated by reduced heat-transfer capacity and increasing pressure drop
  • Flow restriction caused by debris, deposits or blocked upstream strainers, indicated by low flow and abnormal operating pressures or temperatures
  • External leakage at connections or brazed joints caused by corrosion, vibration or piping stress, indicated by visible fluid, oil traces or loss of refrigerant charge
  • Internal cross-leakage caused by plate or brazed-joint failure, indicated by contamination between circuits or unexplained loss from one side
  • Freeze damage in evaporator or chilled-fluid service caused by inadequate flow or control malfunction, indicated by sudden leakage or loss of pressure integrity
  • Refrigerant maldistribution or unstable control caused by system-side faults, indicated by fluctuating superheat, capacity or discharge conditions
Service: Monitor inlet and outlet temperatures, pressures and pressure drop for gradual loss of performance. Maintain upstream strainers and fluid quality because internal mechanical access is limited. Check all external connections and the plate-pack perimeter for leakage, corrosion and vibration damage. Ensure connected piping is adequately supported so that excessive loads are not transferred into the exchanger. In evaporator duties, verify freeze protection, minimum-flow safeguards and refrigerant controls. If chemical cleaning is required, use only methods and agents compatible with the exchanger materials and follow manufacturer instructions.
Spare Parts: For critical duties, a complete replacement brazed plate heat exchanger may be more practical than internal spare parts because the plate pack is normally not dismantled. Useful associated spares include connection seals where applicable, strainers or strainer elements, temperature and pressure sensors, control-valve service parts and refrigeration-system control components. Spare strategy should reflect system redundancy and the vessel's trading pattern.
Use Cases: Used in marine HVAC, refrigeration, chiller, heat-pump, engine-cooling and auxiliary liquid-cooling systems where compact size and high heat-transfer efficiency are required. Applications occur on merchant ships, passenger vessels, offshore vessels, workboats and yachts.
Manufacturer Datasheet
Datasheet
ACH900-180P
Model number
ACH900-180P
Plate count (min)
10 plates
Plate count (max)
218 plates
Max flow rate
481.6 m3/h
Design pressure
45 bar
Application
high-pressure refrigerant heat pump, AC and refrigeration
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
197 plates
Effective flow rate at duty point
481.6 m3/h
Configuration
180P configuration
Common Failures & Inspection Points
  • Internal fouling caused by contaminated water, oil or process fluid, indicated by reduced heat-transfer capacity and increasing pressure drop
  • Flow restriction caused by debris, deposits or blocked upstream strainers, indicated by low flow and abnormal operating pressures or temperatures
  • External leakage at connections or brazed joints caused by corrosion, vibration or piping stress, indicated by visible fluid, oil traces or loss of refrigerant charge
  • Internal cross-leakage caused by plate or brazed-joint failure, indicated by contamination between circuits or unexplained loss from one side
  • Freeze damage in evaporator or chilled-fluid service caused by inadequate flow or control malfunction, indicated by sudden leakage or loss of pressure integrity
  • Refrigerant maldistribution or unstable control caused by system-side faults, indicated by fluctuating superheat, capacity or discharge conditions
Service: Monitor inlet and outlet temperatures, pressures and pressure drop for gradual loss of performance. Maintain upstream strainers and fluid quality because internal mechanical access is limited. Check all external connections and the plate-pack perimeter for leakage, corrosion and vibration damage. Ensure connected piping is adequately supported so that excessive loads are not transferred into the exchanger. In evaporator duties, verify freeze protection, minimum-flow safeguards and refrigerant controls. If chemical cleaning is required, use only methods and agents compatible with the exchanger materials and follow manufacturer instructions.
Spare Parts: For critical duties, a complete replacement brazed plate heat exchanger may be more practical than internal spare parts because the plate pack is normally not dismantled. Useful associated spares include connection seals where applicable, strainers or strainer elements, temperature and pressure sensors, control-valve service parts and refrigeration-system control components. Spare strategy should reflect system redundancy and the vessel's trading pattern.
Use Cases: Used in marine HVAC, refrigeration, chiller, heat-pump, engine-cooling and auxiliary liquid-cooling systems where compact size and high heat-transfer efficiency are required. Applications occur on merchant ships, passenger vessels, offshore vessels, workboats and yachts.
Manufacturer Datasheet
Datasheet
ACH900-MAX
Model number
ACH900-MAX
Plate count (min)
10 plates
Plate count (max)
218 plates
Max flow rate
507.0 m3/h
Design pressure
45 bar
Application
high-pressure refrigerant heat pump, AC and refrigeration
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
218 plates
Effective flow rate at duty point
507.0 m3/h
Configuration
MAX configuration
Common Failures & Inspection Points
  • Internal fouling caused by contaminated water, oil or process fluid, indicated by reduced heat-transfer capacity and increasing pressure drop
  • Flow restriction caused by debris, deposits or blocked upstream strainers, indicated by low flow and abnormal operating pressures or temperatures
  • External leakage at connections or brazed joints caused by corrosion, vibration or piping stress, indicated by visible fluid, oil traces or loss of refrigerant charge
  • Internal cross-leakage caused by plate or brazed-joint failure, indicated by contamination between circuits or unexplained loss from one side
  • Freeze damage in evaporator or chilled-fluid service caused by inadequate flow or control malfunction, indicated by sudden leakage or loss of pressure integrity
  • Refrigerant maldistribution or unstable control caused by system-side faults, indicated by fluctuating superheat, capacity or discharge conditions
Service: Monitor inlet and outlet temperatures, pressures and pressure drop for gradual loss of performance. Maintain upstream strainers and fluid quality because internal mechanical access is limited. Check all external connections and the plate-pack perimeter for leakage, corrosion and vibration damage. Ensure connected piping is adequately supported so that excessive loads are not transferred into the exchanger. In evaporator duties, verify freeze protection, minimum-flow safeguards and refrigerant controls. If chemical cleaning is required, use only methods and agents compatible with the exchanger materials and follow manufacturer instructions.
Spare Parts: For critical duties, a complete replacement brazed plate heat exchanger may be more practical than internal spare parts because the plate pack is normally not dismantled. Useful associated spares include connection seals where applicable, strainers or strainer elements, temperature and pressure sensors, control-valve service parts and refrigeration-system control components. Spare strategy should reflect system redundancy and the vessel's trading pattern.
Use Cases: Used in marine HVAC, refrigeration, chiller, heat-pump, engine-cooling and auxiliary liquid-cooling systems where compact size and high heat-transfer efficiency are required. Applications occur on merchant ships, passenger vessels, offshore vessels, workboats and yachts.
Manufacturer Datasheet
Datasheet
CB14
Model number
CB14
Plate count (min)
6 plates
Plate count (max)
60 plates
Max flow rate
4.0 m3/h
Design pressure
33 bar
Application
compact heat transfer, district heating
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Common Failures & Inspection Points
  • Fouling of the narrow flow channels caused by scale, sludge, oil degradation products or dirty fluid, indicated by reduced heat transfer and increased pressure drop
  • Partial blockage caused by debris or failed upstream filtration, indicated by reduced flow and abnormal temperature difference
  • External leakage at brazed joints or connections caused by corrosion, fatigue or piping loads, indicated by visible leakage or fluid loss
  • Internal plate failure or cross-leakage caused by corrosion, erosion or fatigue, indicated by contamination between circuits
  • Freeze damage in susceptible cooling duties caused by inadequate flow or control failure, indicated by distortion, leakage or sudden loss of pressure integrity
Service: Trend temperatures, pressures and pressure drop across both circuits and investigate gradual performance deterioration. Maintain strainers and fluid treatment to prevent deposits from entering the narrow channels. Inspect the plate pack and connections externally for corrosion, leakage and vibration damage and verify that piping is independently supported. Chemical cleaning should follow Alfa Laval guidance and be compatible with the plate and brazing materials. Where freezing is possible, verify flow and control protection. Replace the exchanger if pressure integrity cannot be restored by approved external repairs.
Spare Parts: A complete spare exchanger is often the most useful critical spare because the brazed plate pack is not normally opened or regasketed. Carry connection seals where fitted, strainer elements, sensors and control-valve service parts associated with the circuit. The decision to stock a complete unit should be based on duty criticality, redundancy and replacement availability.
Use Cases: Used on marine and industrial heating and cooling circuits, including HVAC, refrigeration, oil cooling, engine-related cooling and heat-pump applications. The compact construction is particularly useful where machinery-space footprint is restricted.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. CB14-MAX
CB14-MAX
Model number
CB14-MAX
Plate count (min)
6 plates
Plate count (max)
60 plates
Max flow rate
4.0 m3/h
Design pressure
33 bar
Application
compact heat transfer, district heating
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
60 plates
Effective flow rate at duty point
4.0 m3/h
Configuration
MAX configuration
Max. design pressure (bar)
32
[08.08.2026] Datenblattlink entfernt: weder die Typbezeichnung noch die Baureihe kommen im Dokument vor.
Datasheet
Alfa Laval S.p.A. CB20
CB20
Model number
CB20
Plate count (min)
10 plates
Plate count (max)
90 plates
Max flow rate
6.5 m3/h
Design pressure
33 bar
Application
compact, hot water heat exchanger
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Common Failures & Inspection Points
  • Fouling of the narrow flow channels caused by scale, sludge, oil degradation products or dirty fluid, indicated by reduced heat transfer and increased pressure drop
  • Partial blockage caused by debris or failed upstream filtration, indicated by reduced flow and abnormal temperature difference
  • External leakage at brazed joints or connections caused by corrosion, fatigue or piping loads, indicated by visible leakage or fluid loss
  • Internal plate failure or cross-leakage caused by corrosion, erosion or fatigue, indicated by contamination between circuits
  • Freeze damage in susceptible cooling duties caused by inadequate flow or control failure, indicated by distortion, leakage or sudden loss of pressure integrity
Service: Trend temperatures, pressures and pressure drop across both circuits and investigate gradual performance deterioration. Maintain strainers and fluid treatment to prevent deposits from entering the narrow channels. Inspect the plate pack and connections externally for corrosion, leakage and vibration damage and verify that piping is independently supported. Chemical cleaning should follow Alfa Laval guidance and be compatible with the plate and brazing materials. Where freezing is possible, verify flow and control protection. Replace the exchanger if pressure integrity cannot be restored by approved external repairs.
Spare Parts: A complete spare exchanger is often the most useful critical spare because the brazed plate pack is not normally opened or regasketed. Carry connection seals where fitted, strainer elements, sensors and control-valve service parts associated with the circuit. The decision to stock a complete unit should be based on duty criticality, redundancy and replacement availability.
Use Cases: Used on marine and industrial heating and cooling circuits, including HVAC, refrigeration, oil cooling, engine-related cooling and heat-pump applications. The compact construction is particularly useful where machinery-space footprint is restricted.
Manufacturer Datasheet
Datasheet
CB20-MAX
Model number
CB20-MAX
Plate count (min)
10 plates
Plate count (max)
90 plates
Max flow rate
6.5 m3/h
Design pressure
33 bar
Application
compact, hot water heat exchanger
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
90 plates
Effective flow rate at duty point
6.5 m3/h
Configuration
MAX configuration
Common Failures & Inspection Points
  • Fouling of the narrow flow channels caused by scale, sludge, oil degradation products or dirty fluid, indicated by reduced heat transfer and increased pressure drop
  • Partial blockage caused by debris or failed upstream filtration, indicated by reduced flow and abnormal temperature difference
  • External leakage at brazed joints or connections caused by corrosion, fatigue or piping loads, indicated by visible leakage or fluid loss
  • Internal plate failure or cross-leakage caused by corrosion, erosion or fatigue, indicated by contamination between circuits
  • Freeze damage in susceptible cooling duties caused by inadequate flow or control failure, indicated by distortion, leakage or sudden loss of pressure integrity
Service: Trend temperatures, pressures and pressure drop across both circuits and investigate gradual performance deterioration. Maintain strainers and fluid treatment to prevent deposits from entering the narrow channels. Inspect the plate pack and connections externally for corrosion, leakage and vibration damage and verify that piping is independently supported. Chemical cleaning should follow Alfa Laval guidance and be compatible with the plate and brazing materials. Where freezing is possible, verify flow and control protection. Replace the exchanger if pressure integrity cannot be restored by approved external repairs.
Spare Parts: A complete spare exchanger is often the most useful critical spare because the brazed plate pack is not normally opened or regasketed. Carry connection seals where fitted, strainer elements, sensors and control-valve service parts associated with the circuit. The decision to stock a complete unit should be based on duty criticality, redundancy and replacement availability.
Use Cases: Used on marine and industrial heating and cooling circuits, including HVAC, refrigeration, oil cooling, engine-related cooling and heat-pump applications. The compact construction is particularly useful where machinery-space footprint is restricted.
Manufacturer Datasheet
Datasheet
CB26
Model number
CB26
Plate count (min)
10 plates
Plate count (max)
90 plates
Max flow rate
8.0 m3/h
Design pressure
33 bar
Application
compact, hot water and district heating
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Max. design pressure (bar)
32
[08.08.2026] Datenblattlink entfernt: weder die Typbezeichnung noch die Baureihe kommen im Dokument vor.
Datasheet
CB26-MAX
Model number
CB26-MAX
Plate count (min)
10 plates
Plate count (max)
90 plates
Max flow rate
8.0 m3/h
Design pressure
33 bar
Application
compact, hot water and district heating
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
90 plates
Effective flow rate at duty point
8.0 m3/h
Configuration
MAX configuration
Common Failures & Inspection Points
  • Fouling of the narrow flow channels caused by scale, sludge, oil degradation products or dirty fluid, indicated by reduced heat transfer and increased pressure drop
  • Partial blockage caused by debris or failed upstream filtration, indicated by reduced flow and abnormal temperature difference
  • External leakage at brazed joints or connections caused by corrosion, fatigue or piping loads, indicated by visible leakage or fluid loss
  • Internal plate failure or cross-leakage caused by corrosion, erosion or fatigue, indicated by contamination between circuits
  • Freeze damage in susceptible cooling duties caused by inadequate flow or control failure, indicated by distortion, leakage or sudden loss of pressure integrity
Service: Trend temperatures, pressures and pressure drop across both circuits and investigate gradual performance deterioration. Maintain strainers and fluid treatment to prevent deposits from entering the narrow channels. Inspect the plate pack and connections externally for corrosion, leakage and vibration damage and verify that piping is independently supported. Chemical cleaning should follow Alfa Laval guidance and be compatible with the plate and brazing materials. Where freezing is possible, verify flow and control protection. Replace the exchanger if pressure integrity cannot be restored by approved external repairs.
Spare Parts: A complete spare exchanger is often the most useful critical spare because the brazed plate pack is not normally opened or regasketed. Carry connection seals where fitted, strainer elements, sensors and control-valve service parts associated with the circuit. The decision to stock a complete unit should be based on duty criticality, redundancy and replacement availability.
Use Cases: Used on marine and industrial heating and cooling circuits, including HVAC, refrigeration, oil cooling, engine-related cooling and heat-pump applications. The compact construction is particularly useful where machinery-space footprint is restricted.
Manufacturer Datasheet
Datasheet
CB27
Model number
CB27
Plate count (min)
10 plates
Plate count (max)
90 plates
Max flow rate
10.0 m3/h
Design pressure
33 bar
Application
compact, marine HVAC
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Common Failures & Inspection Points
  • Fouling of the narrow flow channels caused by scale, sludge, oil degradation products or dirty fluid, indicated by reduced heat transfer and increased pressure drop
  • Partial blockage caused by debris or failed upstream filtration, indicated by reduced flow and abnormal temperature difference
  • External leakage at brazed joints or connections caused by corrosion, fatigue or piping loads, indicated by visible leakage or fluid loss
  • Internal plate failure or cross-leakage caused by corrosion, erosion or fatigue, indicated by contamination between circuits
  • Freeze damage in susceptible cooling duties caused by inadequate flow or control failure, indicated by distortion, leakage or sudden loss of pressure integrity
Service: Trend temperatures, pressures and pressure drop across both circuits and investigate gradual performance deterioration. Maintain strainers and fluid treatment to prevent deposits from entering the narrow channels. Inspect the plate pack and connections externally for corrosion, leakage and vibration damage and verify that piping is independently supported. Chemical cleaning should follow Alfa Laval guidance and be compatible with the plate and brazing materials. Where freezing is possible, verify flow and control protection. Replace the exchanger if pressure integrity cannot be restored by approved external repairs.
Spare Parts: A complete spare exchanger is often the most useful critical spare because the brazed plate pack is not normally opened or regasketed. Carry connection seals where fitted, strainer elements, sensors and control-valve service parts associated with the circuit. The decision to stock a complete unit should be based on duty criticality, redundancy and replacement availability.
Use Cases: Used on marine and industrial heating and cooling circuits, including HVAC, refrigeration, oil cooling, engine-related cooling and heat-pump applications. The compact construction is particularly useful where machinery-space footprint is restricted.
Manufacturer Datasheet
Datasheet
CB27-MAX
Model number
CB27-MAX
Plate count (min)
10 plates
Plate count (max)
90 plates
Max flow rate
10.0 m3/h
Design pressure
33 bar
Application
compact, marine HVAC
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
90 plates
Effective flow rate at duty point
10.0 m3/h
Configuration
MAX configuration
Common Failures & Inspection Points
  • Fouling of the narrow flow channels caused by scale, sludge, oil degradation products or dirty fluid, indicated by reduced heat transfer and increased pressure drop
  • Partial blockage caused by debris or failed upstream filtration, indicated by reduced flow and abnormal temperature difference
  • External leakage at brazed joints or connections caused by corrosion, fatigue or piping loads, indicated by visible leakage or fluid loss
  • Internal plate failure or cross-leakage caused by corrosion, erosion or fatigue, indicated by contamination between circuits
  • Freeze damage in susceptible cooling duties caused by inadequate flow or control failure, indicated by distortion, leakage or sudden loss of pressure integrity
Service: Trend temperatures, pressures and pressure drop across both circuits and investigate gradual performance deterioration. Maintain strainers and fluid treatment to prevent deposits from entering the narrow channels. Inspect the plate pack and connections externally for corrosion, leakage and vibration damage and verify that piping is independently supported. Chemical cleaning should follow Alfa Laval guidance and be compatible with the plate and brazing materials. Where freezing is possible, verify flow and control protection. Replace the exchanger if pressure integrity cannot be restored by approved external repairs.
Spare Parts: A complete spare exchanger is often the most useful critical spare because the brazed plate pack is not normally opened or regasketed. Carry connection seals where fitted, strainer elements, sensors and control-valve service parts associated with the circuit. The decision to stock a complete unit should be based on duty criticality, redundancy and replacement availability.
Use Cases: Used on marine and industrial heating and cooling circuits, including HVAC, refrigeration, oil cooling, engine-related cooling and heat-pump applications. The compact construction is particularly useful where machinery-space footprint is restricted.
Manufacturer Datasheet
Datasheet
CB30
Model number
CB30
Plate count (min)
10 plates
Plate count (max)
150 plates
Max flow rate
22.0 m3/h
Design pressure
33 bar
Application
marine HVAC, freshwater
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Common Failures & Inspection Points
  • Fouling of the narrow flow channels caused by scale, sludge, oil degradation products or dirty fluid, indicated by reduced heat transfer and increased pressure drop
  • Partial blockage caused by debris or failed upstream filtration, indicated by reduced flow and abnormal temperature difference
  • External leakage at brazed joints or connections caused by corrosion, fatigue or piping loads, indicated by visible leakage or fluid loss
  • Internal plate failure or cross-leakage caused by corrosion, erosion or fatigue, indicated by contamination between circuits
  • Freeze damage in susceptible cooling duties caused by inadequate flow or control failure, indicated by distortion, leakage or sudden loss of pressure integrity
Service: Trend temperatures, pressures and pressure drop across both circuits and investigate gradual performance deterioration. Maintain strainers and fluid treatment to prevent deposits from entering the narrow channels. Inspect the plate pack and connections externally for corrosion, leakage and vibration damage and verify that piping is independently supported. Chemical cleaning should follow Alfa Laval guidance and be compatible with the plate and brazing materials. Where freezing is possible, verify flow and control protection. Replace the exchanger if pressure integrity cannot be restored by approved external repairs.
Spare Parts: A complete spare exchanger is often the most useful critical spare because the brazed plate pack is not normally opened or regasketed. Carry connection seals where fitted, strainer elements, sensors and control-valve service parts associated with the circuit. The decision to stock a complete unit should be based on duty criticality, redundancy and replacement availability.
Use Cases: Used on marine and industrial heating and cooling circuits, including HVAC, refrigeration, oil cooling, engine-related cooling and heat-pump applications. The compact construction is particularly useful where machinery-space footprint is restricted.
Manufacturer Datasheet
Datasheet
CB30-MAX
Model number
CB30-MAX
Plate count (min)
10 plates
Plate count (max)
150 plates
Max flow rate
22.0 m3/h
Design pressure
33 bar
Application
marine HVAC, freshwater
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
150 plates
Effective flow rate at duty point
22.0 m3/h
Configuration
MAX configuration
Common Failures & Inspection Points
  • Fouling of the narrow flow channels caused by scale, sludge, oil degradation products or dirty fluid, indicated by reduced heat transfer and increased pressure drop
  • Partial blockage caused by debris or failed upstream filtration, indicated by reduced flow and abnormal temperature difference
  • External leakage at brazed joints or connections caused by corrosion, fatigue or piping loads, indicated by visible leakage or fluid loss
  • Internal plate failure or cross-leakage caused by corrosion, erosion or fatigue, indicated by contamination between circuits
  • Freeze damage in susceptible cooling duties caused by inadequate flow or control failure, indicated by distortion, leakage or sudden loss of pressure integrity
Service: Trend temperatures, pressures and pressure drop across both circuits and investigate gradual performance deterioration. Maintain strainers and fluid treatment to prevent deposits from entering the narrow channels. Inspect the plate pack and connections externally for corrosion, leakage and vibration damage and verify that piping is independently supported. Chemical cleaning should follow Alfa Laval guidance and be compatible with the plate and brazing materials. Where freezing is possible, verify flow and control protection. Replace the exchanger if pressure integrity cannot be restored by approved external repairs.
Spare Parts: A complete spare exchanger is often the most useful critical spare because the brazed plate pack is not normally opened or regasketed. Carry connection seals where fitted, strainer elements, sensors and control-valve service parts associated with the circuit. The decision to stock a complete unit should be based on duty criticality, redundancy and replacement availability.
Use Cases: Used on marine and industrial heating and cooling circuits, including HVAC, refrigeration, oil cooling, engine-related cooling and heat-pump applications. The compact construction is particularly useful where machinery-space footprint is restricted.
Manufacturer Datasheet
Datasheet
CB52
Model number
CB52
Plate count (min)
10 plates
Plate count (max)
120 plates
Max flow rate
25.0 m3/h
Design pressure
33 bar
Application
marine cooling, oil cooling
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Common Failures & Inspection Points
  • Fouling of the narrow flow channels caused by scale, sludge, oil degradation products or dirty fluid, indicated by reduced heat transfer and increased pressure drop
  • Partial blockage caused by debris or failed upstream filtration, indicated by reduced flow and abnormal temperature difference
  • External leakage at brazed joints or connections caused by corrosion, fatigue or piping loads, indicated by visible leakage or fluid loss
  • Internal plate failure or cross-leakage caused by corrosion, erosion or fatigue, indicated by contamination between circuits
  • Freeze damage in susceptible cooling duties caused by inadequate flow or control failure, indicated by distortion, leakage or sudden loss of pressure integrity
Service: Trend temperatures, pressures and pressure drop across both circuits and investigate gradual performance deterioration. Maintain strainers and fluid treatment to prevent deposits from entering the narrow channels. Inspect the plate pack and connections externally for corrosion, leakage and vibration damage and verify that piping is independently supported. Chemical cleaning should follow Alfa Laval guidance and be compatible with the plate and brazing materials. Where freezing is possible, verify flow and control protection. Replace the exchanger if pressure integrity cannot be restored by approved external repairs.
Spare Parts: A complete spare exchanger is often the most useful critical spare because the brazed plate pack is not normally opened or regasketed. Carry connection seals where fitted, strainer elements, sensors and control-valve service parts associated with the circuit. The decision to stock a complete unit should be based on duty criticality, redundancy and replacement availability.
Use Cases: Used on marine and industrial heating and cooling circuits, including HVAC, refrigeration, oil cooling, engine-related cooling and heat-pump applications. The compact construction is particularly useful where machinery-space footprint is restricted.
Manufacturer Datasheet
Datasheet
CB52-MAX
Model number
CB52-MAX
Plate count (min)
10 plates
Plate count (max)
120 plates
Max flow rate
25.0 m3/h
Design pressure
33 bar
Application
marine cooling, oil cooling
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
120 plates
Effective flow rate at duty point
25.0 m3/h
Configuration
MAX configuration
Common Failures & Inspection Points
  • Fouling of the narrow flow channels caused by scale, sludge, oil degradation products or dirty fluid, indicated by reduced heat transfer and increased pressure drop
  • Partial blockage caused by debris or failed upstream filtration, indicated by reduced flow and abnormal temperature difference
  • External leakage at brazed joints or connections caused by corrosion, fatigue or piping loads, indicated by visible leakage or fluid loss
  • Internal plate failure or cross-leakage caused by corrosion, erosion or fatigue, indicated by contamination between circuits
  • Freeze damage in susceptible cooling duties caused by inadequate flow or control failure, indicated by distortion, leakage or sudden loss of pressure integrity
Service: Trend temperatures, pressures and pressure drop across both circuits and investigate gradual performance deterioration. Maintain strainers and fluid treatment to prevent deposits from entering the narrow channels. Inspect the plate pack and connections externally for corrosion, leakage and vibration damage and verify that piping is independently supported. Chemical cleaning should follow Alfa Laval guidance and be compatible with the plate and brazing materials. Where freezing is possible, verify flow and control protection. Replace the exchanger if pressure integrity cannot be restored by approved external repairs.
Spare Parts: A complete spare exchanger is often the most useful critical spare because the brazed plate pack is not normally opened or regasketed. Carry connection seals where fitted, strainer elements, sensors and control-valve service parts associated with the circuit. The decision to stock a complete unit should be based on duty criticality, redundancy and replacement availability.
Use Cases: Used on marine and industrial heating and cooling circuits, including HVAC, refrigeration, oil cooling, engine-related cooling and heat-pump applications. The compact construction is particularly useful where machinery-space footprint is restricted.
Manufacturer Datasheet
Datasheet
CB60
Model number
CB60
Plate count (min)
16 plates
Plate count (max)
200 plates
Max flow rate
50.0 m3/h
Design pressure
33 bar
Application
marine engine jacket water cooling
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Common Failures & Inspection Points
  • Fouling of the narrow flow channels caused by scale, sludge, oil degradation products or dirty fluid, indicated by reduced heat transfer and increased pressure drop
  • Partial blockage caused by debris or failed upstream filtration, indicated by reduced flow and abnormal temperature difference
  • External leakage at brazed joints or connections caused by corrosion, fatigue or piping loads, indicated by visible leakage or fluid loss
  • Internal plate failure or cross-leakage caused by corrosion, erosion or fatigue, indicated by contamination between circuits
  • Freeze damage in susceptible cooling duties caused by inadequate flow or control failure, indicated by distortion, leakage or sudden loss of pressure integrity
Service: Trend temperatures, pressures and pressure drop across both circuits and investigate gradual performance deterioration. Maintain strainers and fluid treatment to prevent deposits from entering the narrow channels. Inspect the plate pack and connections externally for corrosion, leakage and vibration damage and verify that piping is independently supported. Chemical cleaning should follow Alfa Laval guidance and be compatible with the plate and brazing materials. Where freezing is possible, verify flow and control protection. Replace the exchanger if pressure integrity cannot be restored by approved external repairs.
Spare Parts: A complete spare exchanger is often the most useful critical spare because the brazed plate pack is not normally opened or regasketed. Carry connection seals where fitted, strainer elements, sensors and control-valve service parts associated with the circuit. The decision to stock a complete unit should be based on duty criticality, redundancy and replacement availability.
Use Cases: Used on marine and industrial heating and cooling circuits, including HVAC, refrigeration, oil cooling, engine-related cooling and heat-pump applications. The compact construction is particularly useful where machinery-space footprint is restricted.
Manufacturer Datasheet
Datasheet
CB60-MAX
Model number
CB60-MAX
Plate count (min)
16 plates
Plate count (max)
200 plates
Max flow rate
50.0 m3/h
Design pressure
33 bar
Application
marine engine jacket water cooling
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
200 plates
Effective flow rate at duty point
50.0 m3/h
Configuration
MAX configuration
Common Failures & Inspection Points
  • Fouling of the narrow flow channels caused by scale, sludge, oil degradation products or dirty fluid, indicated by reduced heat transfer and increased pressure drop
  • Partial blockage caused by debris or failed upstream filtration, indicated by reduced flow and abnormal temperature difference
  • External leakage at brazed joints or connections caused by corrosion, fatigue or piping loads, indicated by visible leakage or fluid loss
  • Internal plate failure or cross-leakage caused by corrosion, erosion or fatigue, indicated by contamination between circuits
  • Freeze damage in susceptible cooling duties caused by inadequate flow or control failure, indicated by distortion, leakage or sudden loss of pressure integrity
Service: Trend temperatures, pressures and pressure drop across both circuits and investigate gradual performance deterioration. Maintain strainers and fluid treatment to prevent deposits from entering the narrow channels. Inspect the plate pack and connections externally for corrosion, leakage and vibration damage and verify that piping is independently supported. Chemical cleaning should follow Alfa Laval guidance and be compatible with the plate and brazing materials. Where freezing is possible, verify flow and control protection. Replace the exchanger if pressure integrity cannot be restored by approved external repairs.
Spare Parts: A complete spare exchanger is often the most useful critical spare because the brazed plate pack is not normally opened or regasketed. Carry connection seals where fitted, strainer elements, sensors and control-valve service parts associated with the circuit. The decision to stock a complete unit should be based on duty criticality, redundancy and replacement availability.
Use Cases: Used on marine and industrial heating and cooling circuits, including HVAC, refrigeration, oil cooling, engine-related cooling and heat-pump applications. The compact construction is particularly useful where machinery-space footprint is restricted.
Manufacturer Datasheet
Datasheet
CB62
Model number
CB62
Plate count (min)
16 plates
Plate count (max)
200 plates
Max flow rate
55.0 m3/h
Design pressure
33 bar
Application
marine cooling, marine lube oil
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Common Failures & Inspection Points
  • Fouling of the narrow flow channels caused by scale, sludge, oil degradation products or dirty fluid, indicated by reduced heat transfer and increased pressure drop
  • Partial blockage caused by debris or failed upstream filtration, indicated by reduced flow and abnormal temperature difference
  • External leakage at brazed joints or connections caused by corrosion, fatigue or piping loads, indicated by visible leakage or fluid loss
  • Internal plate failure or cross-leakage caused by corrosion, erosion or fatigue, indicated by contamination between circuits
  • Freeze damage in susceptible cooling duties caused by inadequate flow or control failure, indicated by distortion, leakage or sudden loss of pressure integrity
Service: Trend temperatures, pressures and pressure drop across both circuits and investigate gradual performance deterioration. Maintain strainers and fluid treatment to prevent deposits from entering the narrow channels. Inspect the plate pack and connections externally for corrosion, leakage and vibration damage and verify that piping is independently supported. Chemical cleaning should follow Alfa Laval guidance and be compatible with the plate and brazing materials. Where freezing is possible, verify flow and control protection. Replace the exchanger if pressure integrity cannot be restored by approved external repairs.
Spare Parts: A complete spare exchanger is often the most useful critical spare because the brazed plate pack is not normally opened or regasketed. Carry connection seals where fitted, strainer elements, sensors and control-valve service parts associated with the circuit. The decision to stock a complete unit should be based on duty criticality, redundancy and replacement availability.
Use Cases: Used on marine and industrial heating and cooling circuits, including HVAC, refrigeration, oil cooling, engine-related cooling and heat-pump applications. The compact construction is particularly useful where machinery-space footprint is restricted.
Manufacturer Datasheet
Datasheet
T21
Model number
T21
Plate count (min)
20 plates
Plate count (max)
400 plates
Max flow rate
420.0 m3/h
Design pressure
16 bar
Max temperature
130 C
Application
efficient gasketed PHE for industrial duties
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Common Failures & Inspection Points
  • Fouling or scaling in the plate channels caused by contaminated media or inadequate water treatment reduces heat-transfer performance and increases pressure drop
  • Aged, chemically attacked or incorrectly seated gaskets cause visible external leakage at the plate pack
  • Corrosion, erosion or cracking of a plate can create internal cross-contamination, indicated by unexpected fluid quality, level or conductivity changes
  • Blocked upstream strainers or restricted valves reduce flow and produce abnormal inlet-to-outlet temperatures
  • Incorrect plate sequence, uneven tightening or piping loads after maintenance can cause leakage, deformation or poor thermal performance
Service: Trend inlet and outlet temperatures, pressures and differential pressure so gradual fouling is detected before performance becomes unacceptable. Inspect the frame, plate pack, gaskets, connections and supports for leakage, corrosion, gasket displacement and piping strain. When opened, check plates for deposits, pitting, erosion, cracks and deformation, and clean only with methods compatible with the installed plate and gasket materials. Reassemble the plates in the documented sequence and tighten only to the dimension specified for that exact unit; refer to the manufacturer documentation for the exact figure.
Spare Parts: Carry the exact gasket type used in the installed plate pack and, where the vessel's redundancy and trading pattern justify it, a limited number of matching spare plates. Useful associated spares include connection seals, strainer elements, valve service kits and approved cleaning consumables. All plate and gasket materials must be matched to the installed service and serial-number configuration.
Use Cases: Marine central cooling, jacket-water and auxiliary cooling, HVAC, heating, heat recovery and other serviceable plate-and-frame heat-transfer duties.
Manufacturer Datasheet
Datasheet
CB62-MAX
Model number
CB62-MAX
Plate count (min)
16 plates
Plate count (max)
200 plates
Max flow rate
55.0 m3/h
Design pressure
33 bar
Application
marine cooling, marine lube oil
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
200 plates
Effective flow rate at duty point
55.0 m3/h
Configuration
MAX configuration
Common Failures & Inspection Points
  • Fouling or scaling inside the narrow plate channels reduces heat-transfer performance and increases pressure drop
  • Blocked strainers or restricted upstream piping reduce flow and produce abnormal outlet temperatures
  • Corrosion, erosion or fatigue damage to the bonded plate pack can cause internal cross-contamination between circuits
  • External leakage at connections caused by damaged joints, vibration or piping loads produces visible fluid loss
  • Freezing, thermal shock or operation outside the approved pressure and temperature envelope can damage the plate pack and lead to leakage
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Engine-room auxiliary cooling, HVAC, refrigeration support, process heating and cooling, heat recovery and other compact heat-transfer duties where a permanently bonded plate exchanger is appropriate.
Manufacturer Datasheet
Datasheet
CB65
Model number
CB65
Plate count (min)
16 plates
Plate count (max)
200 plates
Max flow rate
60.0 m3/h
Design pressure
33 bar
Application
marine cooling, freshwater generator
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Common Failures & Inspection Points
  • Fouling or scaling inside the narrow plate channels reduces heat-transfer performance and increases pressure drop
  • Blocked strainers or restricted upstream piping reduce flow and produce abnormal outlet temperatures
  • Corrosion, erosion or fatigue damage to the bonded plate pack can cause internal cross-contamination between circuits
  • External leakage at connections caused by damaged joints, vibration or piping loads produces visible fluid loss
  • Freezing, thermal shock or operation outside the approved pressure and temperature envelope can damage the plate pack and lead to leakage
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Engine-room auxiliary cooling, HVAC, refrigeration support, process heating and cooling, heat recovery and other compact heat-transfer duties where a permanently bonded plate exchanger is appropriate.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. CB65-MAX
CB65-MAX
Model number
CB65-MAX
Plate count (min)
16 plates
Plate count (max)
200 plates
Max flow rate
60.0 m3/h
Design pressure
33 bar
Application
marine cooling, freshwater generator
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
200 plates
Effective flow rate at duty point
60.0 m3/h
Configuration
MAX configuration
Common Failures & Inspection Points
  • Fouling or scaling inside the narrow plate channels reduces heat-transfer performance and increases pressure drop
  • Blocked strainers or restricted upstream piping reduce flow and produce abnormal outlet temperatures
  • Corrosion, erosion or fatigue damage to the bonded plate pack can cause internal cross-contamination between circuits
  • External leakage at connections caused by damaged joints, vibration or piping loads produces visible fluid loss
  • Freezing, thermal shock or operation outside the approved pressure and temperature envelope can damage the plate pack and lead to leakage
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Engine-room auxiliary cooling, HVAC, refrigeration support, process heating and cooling, heat recovery and other compact heat-transfer duties where a permanently bonded plate exchanger is appropriate.
Manufacturer Datasheet
Datasheet
CB76
Model number
CB76
Plate count (min)
20 plates
Plate count (max)
220 plates
Max flow rate
75.0 m3/h
Design pressure
33 bar
Application
marine cooling, freshwater
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Common Failures & Inspection Points
  • Fouling or scaling inside the narrow plate channels reduces heat-transfer performance and increases pressure drop
  • Blocked strainers or restricted upstream piping reduce flow and produce abnormal outlet temperatures
  • Corrosion, erosion or fatigue damage to the bonded plate pack can cause internal cross-contamination between circuits
  • External leakage at connections caused by damaged joints, vibration or piping loads produces visible fluid loss
  • Freezing, thermal shock or operation outside the approved pressure and temperature envelope can damage the plate pack and lead to leakage
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Engine-room auxiliary cooling, HVAC, refrigeration support, process heating and cooling, heat recovery and other compact heat-transfer duties where a permanently bonded plate exchanger is appropriate.
Manufacturer Datasheet
Datasheet
CB76-MAX
Model number
CB76-MAX
Plate count (min)
20 plates
Plate count (max)
220 plates
Max flow rate
75.0 m3/h
Design pressure
33 bar
Application
marine cooling, freshwater
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
220 plates
Effective flow rate at duty point
75.0 m3/h
Configuration
MAX configuration
Common Failures & Inspection Points
  • Fouling or scaling inside the narrow plate channels reduces heat-transfer performance and increases pressure drop
  • Blocked strainers or restricted upstream piping reduce flow and produce abnormal outlet temperatures
  • Corrosion, erosion or fatigue damage to the bonded plate pack can cause internal cross-contamination between circuits
  • External leakage at connections caused by damaged joints, vibration or piping loads produces visible fluid loss
  • Freezing, thermal shock or operation outside the approved pressure and temperature envelope can damage the plate pack and lead to leakage
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Engine-room auxiliary cooling, HVAC, refrigeration support, process heating and cooling, heat recovery and other compact heat-transfer duties where a permanently bonded plate exchanger is appropriate.
Manufacturer Datasheet
Datasheet
CB110
Model number
CB110
Plate count (min)
20 plates
Plate count (max)
250 plates
Max flow rate
85.0 m3/h
Design pressure
33 bar
Application
marine cooling, large heat duty
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Common Failures & Inspection Points
  • Fouling or scaling inside the narrow plate channels reduces heat-transfer performance and increases pressure drop
  • Blocked strainers or restricted upstream piping reduce flow and produce abnormal outlet temperatures
  • Corrosion, erosion or fatigue damage to the bonded plate pack can cause internal cross-contamination between circuits
  • External leakage at connections caused by damaged joints, vibration or piping loads produces visible fluid loss
  • Freezing, thermal shock or operation outside the approved pressure and temperature envelope can damage the plate pack and lead to leakage
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Engine-room auxiliary cooling, HVAC, refrigeration support, process heating and cooling, heat recovery and other compact heat-transfer duties where a permanently bonded plate exchanger is appropriate.
Manufacturer Datasheet
Datasheet
CB110-MAX
Model number
CB110-MAX
Plate count (min)
20 plates
Plate count (max)
250 plates
Max flow rate
85.0 m3/h
Design pressure
33 bar
Application
marine cooling, large heat duty
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
250 plates
Effective flow rate at duty point
85.0 m3/h
Configuration
MAX configuration
Common Failures & Inspection Points
  • Fouling or scaling inside the narrow plate channels reduces heat-transfer performance and increases pressure drop
  • Blocked strainers or restricted upstream piping reduce flow and produce abnormal outlet temperatures
  • Corrosion, erosion or fatigue damage to the bonded plate pack can cause internal cross-contamination between circuits
  • External leakage at connections caused by damaged joints, vibration or piping loads produces visible fluid loss
  • Freezing, thermal shock or operation outside the approved pressure and temperature envelope can damage the plate pack and lead to leakage
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Engine-room auxiliary cooling, HVAC, refrigeration support, process heating and cooling, heat recovery and other compact heat-transfer duties where a permanently bonded plate exchanger is appropriate.
Manufacturer Datasheet
Datasheet
CB112
Model number
CB112
Plate count (min)
20 plates
Plate count (max)
250 plates
Max flow rate
90.0 m3/h
Design pressure
33 bar
Application
marine cooling, central cooling water
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Common Failures & Inspection Points
  • Fouling or scaling inside the narrow plate channels reduces heat-transfer performance and increases pressure drop
  • Blocked strainers or restricted upstream piping reduce flow and produce abnormal outlet temperatures
  • Corrosion, erosion or fatigue damage to the bonded plate pack can cause internal cross-contamination between circuits
  • External leakage at connections caused by damaged joints, vibration or piping loads produces visible fluid loss
  • Freezing, thermal shock or operation outside the approved pressure and temperature envelope can damage the plate pack and lead to leakage
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Engine-room auxiliary cooling, HVAC, refrigeration support, process heating and cooling, heat recovery and other compact heat-transfer duties where a permanently bonded plate exchanger is appropriate.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. CB112-MAX
CB112-MAX
Model number
CB112-MAX
Plate count (min)
20 plates
Plate count (max)
250 plates
Max flow rate
90.0 m3/h
Design pressure
33 bar
Application
marine cooling, central cooling water
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
250 plates
Effective flow rate at duty point
90.0 m3/h
Configuration
MAX configuration
Common Failures & Inspection Points
  • Fouling or scaling inside the narrow plate channels reduces heat-transfer performance and increases pressure drop
  • Blocked strainers or restricted upstream piping reduce flow and produce abnormal outlet temperatures
  • Corrosion, erosion or fatigue damage to the bonded plate pack can cause internal cross-contamination between circuits
  • External leakage at connections caused by damaged joints, vibration or piping loads produces visible fluid loss
  • Freezing, thermal shock or operation outside the approved pressure and temperature envelope can damage the plate pack and lead to leakage
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Engine-room auxiliary cooling, HVAC, refrigeration support, process heating and cooling, heat recovery and other compact heat-transfer duties where a permanently bonded plate exchanger is appropriate.
Manufacturer Datasheet
Datasheet
CB200
Model number
CB200
Plate count (min)
20 plates
Plate count (max)
250 plates
Max flow rate
145.0 m3/h
Design pressure
33 bar
Application
marine industrial cooling
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Common Failures & Inspection Points
  • Fouling or scaling inside the narrow plate channels reduces heat-transfer performance and increases pressure drop
  • Blocked strainers or restricted upstream piping reduce flow and produce abnormal outlet temperatures
  • Corrosion, erosion or fatigue damage to the bonded plate pack can cause internal cross-contamination between circuits
  • External leakage at connections caused by damaged joints, vibration or piping loads produces visible fluid loss
  • Freezing, thermal shock or operation outside the approved pressure and temperature envelope can damage the plate pack and lead to leakage
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Engine-room auxiliary cooling, HVAC, refrigeration support, process heating and cooling, heat recovery and other compact heat-transfer duties where a permanently bonded plate exchanger is appropriate.
Manufacturer Datasheet
Datasheet
CB200-MAX
Model number
CB200-MAX
Plate count (min)
20 plates
Plate count (max)
250 plates
Max flow rate
145.0 m3/h
Design pressure
33 bar
Application
marine industrial cooling
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
250 plates
Effective flow rate at duty point
145.0 m3/h
Configuration
MAX configuration
Common Failures & Inspection Points
  • Fouling or scaling inside the narrow plate channels reduces heat-transfer performance and increases pressure drop
  • Blocked strainers or restricted upstream piping reduce flow and produce abnormal outlet temperatures
  • Corrosion, erosion or fatigue damage to the bonded plate pack can cause internal cross-contamination between circuits
  • External leakage at connections caused by damaged joints, vibration or piping loads produces visible fluid loss
  • Freezing, thermal shock or operation outside the approved pressure and temperature envelope can damage the plate pack and lead to leakage
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Engine-room auxiliary cooling, HVAC, refrigeration support, process heating and cooling, heat recovery and other compact heat-transfer duties where a permanently bonded plate exchanger is appropriate.
Manufacturer Datasheet
Datasheet
CB210
Model number
CB210
Plate count (min)
20 plates
Plate count (max)
250 plates
Max flow rate
155.0 m3/h
Design pressure
33 bar
Application
marine industrial cooling
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Common Failures & Inspection Points
  • Fouling or scaling inside the narrow plate channels reduces heat-transfer performance and increases pressure drop
  • Blocked strainers or restricted upstream piping reduce flow and produce abnormal outlet temperatures
  • Corrosion, erosion or fatigue damage to the bonded plate pack can cause internal cross-contamination between circuits
  • External leakage at connections caused by damaged joints, vibration or piping loads produces visible fluid loss
  • Freezing, thermal shock or operation outside the approved pressure and temperature envelope can damage the plate pack and lead to leakage
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Engine-room auxiliary cooling, HVAC, refrigeration support, process heating and cooling, heat recovery and other compact heat-transfer duties where a permanently bonded plate exchanger is appropriate.
Manufacturer Datasheet
Datasheet
CB210-MAX
Model number
CB210-MAX
Plate count (min)
20 plates
Plate count (max)
250 plates
Max flow rate
155.0 m3/h
Design pressure
33 bar
Application
marine industrial cooling
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
250 plates
Effective flow rate at duty point
155.0 m3/h
Configuration
MAX configuration
Common Failures & Inspection Points
  • Fouling or scaling inside the narrow plate channels reduces heat-transfer performance and increases pressure drop
  • Blocked strainers or restricted upstream piping reduce flow and produce abnormal outlet temperatures
  • Corrosion, erosion or fatigue damage to the bonded plate pack can cause internal cross-contamination between circuits
  • External leakage at connections caused by damaged joints, vibration or piping loads produces visible fluid loss
  • Freezing, thermal shock or operation outside the approved pressure and temperature envelope can damage the plate pack and lead to leakage
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Engine-room auxiliary cooling, HVAC, refrigeration support, process heating and cooling, heat recovery and other compact heat-transfer duties where a permanently bonded plate exchanger is appropriate.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. CB300
CB300
Model number
CB300
Plate count (min)
20 plates
Plate count (max)
300 plates
Max flow rate
215.0 m3/h
Design pressure
33 bar
Application
marine industrial cooling
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Common Failures & Inspection Points
  • Fouling or scaling inside the narrow plate channels reduces heat-transfer performance and increases pressure drop
  • Blocked strainers or restricted upstream piping reduce flow and produce abnormal outlet temperatures
  • Corrosion, erosion or fatigue damage to the bonded plate pack can cause internal cross-contamination between circuits
  • External leakage at connections caused by damaged joints, vibration or piping loads produces visible fluid loss
  • Freezing, thermal shock or operation outside the approved pressure and temperature envelope can damage the plate pack and lead to leakage
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Engine-room auxiliary cooling, HVAC, refrigeration support, process heating and cooling, heat recovery and other compact heat-transfer duties where a permanently bonded plate exchanger is appropriate.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. CB300-MAX
CB300-MAX
Model number
CB300-MAX
Plate count (min)
20 plates
Plate count (max)
300 plates
Max flow rate
215.0 m3/h
Design pressure
33 bar
Application
marine industrial cooling
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
300 plates
Effective flow rate at duty point
215.0 m3/h
Configuration
MAX configuration
Common Failures & Inspection Points
  • Fouling or scaling inside the narrow plate channels reduces heat-transfer performance and increases pressure drop
  • Blocked strainers or restricted upstream piping reduce flow and produce abnormal outlet temperatures
  • Corrosion, erosion or fatigue damage to the bonded plate pack can cause internal cross-contamination between circuits
  • External leakage at connections caused by damaged joints, vibration or piping loads produces visible fluid loss
  • Freezing, thermal shock or operation outside the approved pressure and temperature envelope can damage the plate pack and lead to leakage
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Engine-room auxiliary cooling, HVAC, refrigeration support, process heating and cooling, heat recovery and other compact heat-transfer duties where a permanently bonded plate exchanger is appropriate.
Manufacturer Datasheet
Datasheet
CB400
Model number
CB400
Plate count (min)
20 plates
Plate count (max)
300 plates
Max flow rate
285.0 m3/h
Design pressure
33 bar
Application
marine industrial cooling
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Common Failures & Inspection Points
  • Fouling or scaling inside the narrow plate channels reduces heat-transfer performance and increases pressure drop
  • Blocked strainers or restricted upstream piping reduce flow and produce abnormal outlet temperatures
  • Corrosion, erosion or fatigue damage to the bonded plate pack can cause internal cross-contamination between circuits
  • External leakage at connections caused by damaged joints, vibration or piping loads produces visible fluid loss
  • Freezing, thermal shock or operation outside the approved pressure and temperature envelope can damage the plate pack and lead to leakage
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Engine-room auxiliary cooling, HVAC, refrigeration support, process heating and cooling, heat recovery and other compact heat-transfer duties where a permanently bonded plate exchanger is appropriate.
Manufacturer Datasheet
Datasheet
CB400-MAX
Model number
CB400-MAX
Plate count (min)
20 plates
Plate count (max)
300 plates
Max flow rate
285.0 m3/h
Design pressure
33 bar
Application
marine industrial cooling
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
300 plates
Effective flow rate at duty point
285.0 m3/h
Configuration
MAX configuration
Common Failures & Inspection Points
  • Fouling or scaling inside the narrow plate channels reduces heat-transfer performance and increases pressure drop
  • Blocked strainers or restricted upstream piping reduce flow and produce abnormal outlet temperatures
  • Corrosion, erosion or fatigue damage to the bonded plate pack can cause internal cross-contamination between circuits
  • External leakage at connections caused by damaged joints, vibration or piping loads produces visible fluid loss
  • Freezing, thermal shock or operation outside the approved pressure and temperature envelope can damage the plate pack and lead to leakage
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Engine-room auxiliary cooling, HVAC, refrigeration support, process heating and cooling, heat recovery and other compact heat-transfer duties where a permanently bonded plate exchanger is appropriate.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. CB430
CB430
Model number
CB430
Plate count (min)
20 plates
Plate count (max)
300 plates
Max flow rate
305.0 m3/h
Design pressure
33 bar
Application
marine industrial cooling
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Common Failures & Inspection Points
  • Fouling or scaling inside the narrow plate channels reduces heat-transfer performance and increases pressure drop
  • Blocked strainers or restricted upstream piping reduce flow and produce abnormal outlet temperatures
  • Corrosion, erosion or fatigue damage to the bonded plate pack can cause internal cross-contamination between circuits
  • External leakage at connections caused by damaged joints, vibration or piping loads produces visible fluid loss
  • Freezing, thermal shock or operation outside the approved pressure and temperature envelope can damage the plate pack and lead to leakage
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Engine-room auxiliary cooling, HVAC, refrigeration support, process heating and cooling, heat recovery and other compact heat-transfer duties where a permanently bonded plate exchanger is appropriate.
Manufacturer Datasheet
Datasheet
CB430-MAX
Model number
CB430-MAX
Plate count (min)
20 plates
Plate count (max)
300 plates
Max flow rate
305.0 m3/h
Design pressure
33 bar
Application
marine industrial cooling
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
300 plates
Effective flow rate at duty point
305.0 m3/h
Configuration
MAX configuration
Common Failures & Inspection Points
  • Fouling or scaling inside the narrow plate channels reduces heat-transfer performance and increases pressure drop
  • Blocked strainers or restricted upstream piping reduce flow and produce abnormal outlet temperatures
  • Corrosion, erosion or fatigue damage to the bonded plate pack can cause internal cross-contamination between circuits
  • External leakage at connections caused by damaged joints, vibration or piping loads produces visible fluid loss
  • Freezing, thermal shock or operation outside the approved pressure and temperature envelope can damage the plate pack and lead to leakage
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Engine-room auxiliary cooling, HVAC, refrigeration support, process heating and cooling, heat recovery and other compact heat-transfer duties where a permanently bonded plate exchanger is appropriate.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. CB650
CB650
Model number
CB650
Plate count (min)
30 plates
Plate count (max)
350 plates
Max flow rate
470.0 m3/h
Design pressure
33 bar
Application
very large heat duties
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Common Failures & Inspection Points
  • Fouling or scaling inside the narrow plate channels reduces heat-transfer performance and increases pressure drop
  • Blocked strainers or restricted upstream piping reduce flow and produce abnormal outlet temperatures
  • Corrosion, erosion or fatigue damage to the bonded plate pack can cause internal cross-contamination between circuits
  • External leakage at connections caused by damaged joints, vibration or piping loads produces visible fluid loss
  • Freezing, thermal shock or operation outside the approved pressure and temperature envelope can damage the plate pack and lead to leakage
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Engine-room auxiliary cooling, HVAC, refrigeration support, process heating and cooling, heat recovery and other compact heat-transfer duties where a permanently bonded plate exchanger is appropriate.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. CB650-MAX
CB650-MAX
Model number
CB650-MAX
Plate count (min)
30 plates
Plate count (max)
350 plates
Max flow rate
470.0 m3/h
Design pressure
33 bar
Application
very large heat duties
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
350 plates
Effective flow rate at duty point
470.0 m3/h
Configuration
MAX configuration
Common Failures & Inspection Points
  • Fouling or scaling inside the narrow plate channels reduces heat-transfer performance and increases pressure drop
  • Blocked strainers or restricted upstream piping reduce flow and produce abnormal outlet temperatures
  • Corrosion, erosion or fatigue damage to the bonded plate pack can cause internal cross-contamination between circuits
  • External leakage at connections caused by damaged joints, vibration or piping loads produces visible fluid loss
  • Freezing, thermal shock or operation outside the approved pressure and temperature envelope can damage the plate pack and lead to leakage
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Engine-room auxiliary cooling, HVAC, refrigeration support, process heating and cooling, heat recovery and other compact heat-transfer duties where a permanently bonded plate exchanger is appropriate.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. CB740
CB740
Model number
CB740
Plate count (min)
30 plates
Plate count (max)
400 plates
Max flow rate
530.0 m3/h
Design pressure
33 bar
Application
very large heat duties
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Common Failures & Inspection Points
  • Fouling or scaling inside the narrow plate channels reduces heat-transfer performance and increases pressure drop
  • Blocked strainers or restricted upstream piping reduce flow and produce abnormal outlet temperatures
  • Corrosion, erosion or fatigue damage to the bonded plate pack can cause internal cross-contamination between circuits
  • External leakage at connections caused by damaged joints, vibration or piping loads produces visible fluid loss
  • Freezing, thermal shock or operation outside the approved pressure and temperature envelope can damage the plate pack and lead to leakage
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Engine-room auxiliary cooling, HVAC, refrigeration support, process heating and cooling, heat recovery and other compact heat-transfer duties where a permanently bonded plate exchanger is appropriate.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. CB740-MAX
CB740-MAX
Model number
CB740-MAX
Plate count (min)
30 plates
Plate count (max)
400 plates
Max flow rate
530.0 m3/h
Design pressure
33 bar
Application
very large heat duties
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
400 plates
Effective flow rate at duty point
530.0 m3/h
Configuration
MAX configuration
Common Failures & Inspection Points
  • Fouling or scaling inside the narrow plate channels reduces heat-transfer performance and increases pressure drop
  • Blocked strainers or restricted upstream piping reduce flow and produce abnormal outlet temperatures
  • Corrosion, erosion or fatigue damage to the bonded plate pack can cause internal cross-contamination between circuits
  • External leakage at connections caused by damaged joints, vibration or piping loads produces visible fluid loss
  • Freezing, thermal shock or operation outside the approved pressure and temperature envelope can damage the plate pack and lead to leakage
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Engine-room auxiliary cooling, HVAC, refrigeration support, process heating and cooling, heat recovery and other compact heat-transfer duties where a permanently bonded plate exchanger is appropriate.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. AC900
AC900
Model number
AC900
Plate count (min)
10 plates
Plate count (max)
218 plates
Max flow rate
507.0 m3/h
Design pressure
30 bar
Application
evaporator/condenser, air conditioning and refrigeration
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Common Failures & Inspection Points
  • Fouling, oil films or contamination on the fluid side reduce heat transfer and can cause abnormal approach temperatures
  • Restricted strainers, poor refrigerant distribution or insufficient liquid flow causes unstable temperatures and reduced capacity
  • Fatigue, corrosion or damage to the bonded plate pack can create internal leakage between circuits, detected by contamination, pressure behaviour or loss of charge
  • External leakage at connections caused by vibration, thermal cycling or piping loads produces visible fluid loss or refrigerant alarms
  • Freezing, liquid hammer or operation outside the approved pressure and temperature envelope can permanently damage the plate pack
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine HVAC chillers, heat pumps, refrigeration plants and other approved evaporator or condenser duties using compatible refrigerants and secondary fluids.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. CBM27
CBM27
Model number
CBM27
Plate count (min)
10 plates
Plate count (max)
90 plates
Max flow rate
10.0 m3/h
Design pressure
33 bar
Application
marine, certified for marine duty
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Common Failures & Inspection Points
  • Fouling or scaling inside the narrow plate channels reduces heat-transfer performance and increases pressure drop
  • Blocked strainers or restricted upstream piping reduce flow and produce abnormal outlet temperatures
  • Corrosion, erosion or fatigue damage to the bonded plate pack can cause internal cross-contamination between circuits
  • External leakage at connections caused by damaged joints, vibration or piping loads produces visible fluid loss
  • Freezing, thermal shock or operation outside the approved pressure and temperature envelope can damage the plate pack and lead to leakage
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine central and auxiliary cooling circuits, jacket-water and lubricating-oil cooling, fuel or cargo-support heating/cooling, HVAC and other compact heat-transfer duties appropriate to the installed materials.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. CBM27-30P
CBM27-30P
Model number
CBM27-30P
Plate count (min)
10 plates
Plate count (max)
90 plates
Max flow rate
2.0 m3/h
Design pressure
33 bar
Application
marine, certified for marine duty
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
22 plates
Effective flow rate at duty point
2.0 m3/h
Configuration
30P configuration
Common Failures & Inspection Points
  • Fouling or scaling inside the narrow plate channels reduces heat-transfer performance and increases pressure drop
  • Blocked strainers or restricted upstream piping reduce flow and produce abnormal outlet temperatures
  • Corrosion, erosion or fatigue damage to the bonded plate pack can cause internal cross-contamination between circuits
  • External leakage at connections caused by damaged joints, vibration or piping loads produces visible fluid loss
  • Freezing, thermal shock or operation outside the approved pressure and temperature envelope can damage the plate pack and lead to leakage
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine central and auxiliary cooling circuits, jacket-water and lubricating-oil cooling, fuel or cargo-support heating/cooling, HVAC and other compact heat-transfer duties appropriate to the installed materials.
Manufacturer Datasheet
Datasheet
CBM27-60P
Model number
CBM27-60P
Plate count (min)
10 plates
Plate count (max)
90 plates
Max flow rate
3.8 m3/h
Design pressure
33 bar
Application
marine, certified for marine duty
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
34 plates
Effective flow rate at duty point
3.8 m3/h
Configuration
60P configuration
Common Failures & Inspection Points
  • Fouling or scaling inside the narrow plate channels reduces heat-transfer performance and increases pressure drop
  • Blocked strainers or restricted upstream piping reduce flow and produce abnormal outlet temperatures
  • Corrosion, erosion or fatigue damage to the bonded plate pack can cause internal cross-contamination between circuits
  • External leakage at connections caused by damaged joints, vibration or piping loads produces visible fluid loss
  • Freezing, thermal shock or operation outside the approved pressure and temperature envelope can damage the plate pack and lead to leakage
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine central and auxiliary cooling circuits, jacket-water and lubricating-oil cooling, fuel or cargo-support heating/cooling, HVAC and other compact heat-transfer duties appropriate to the installed materials.
Manufacturer Datasheet
Datasheet
CBM27-90P
Model number
CBM27-90P
Plate count (min)
10 plates
Plate count (max)
90 plates
Max flow rate
5.5 m3/h
Design pressure
33 bar
Application
marine, certified for marine duty
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
46 plates
Effective flow rate at duty point
5.5 m3/h
Configuration
90P configuration
Common Failures & Inspection Points
  • Fouling or scaling inside the narrow plate channels reduces heat-transfer performance and increases pressure drop
  • Blocked strainers or restricted upstream piping reduce flow and produce abnormal outlet temperatures
  • Corrosion, erosion or fatigue damage to the bonded plate pack can cause internal cross-contamination between circuits
  • External leakage at connections caused by damaged joints, vibration or piping loads produces visible fluid loss
  • Freezing, thermal shock or operation outside the approved pressure and temperature envelope can damage the plate pack and lead to leakage
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine central and auxiliary cooling circuits, jacket-water and lubricating-oil cooling, fuel or cargo-support heating/cooling, HVAC and other compact heat-transfer duties appropriate to the installed materials.
Manufacturer Datasheet
Datasheet
CBM27-120P
Model number
CBM27-120P
Plate count (min)
10 plates
Plate count (max)
90 plates
Max flow rate
7.0 m3/h
Design pressure
33 bar
Application
marine, certified for marine duty
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
58 plates
Effective flow rate at duty point
7.0 m3/h
Configuration
120P configuration
Common Failures & Inspection Points
  • Fouling or scaling inside the narrow plate channels reduces heat-transfer performance and increases pressure drop
  • Blocked strainers or restricted upstream piping reduce flow and produce abnormal outlet temperatures
  • Corrosion, erosion or fatigue damage to the bonded plate pack can cause internal cross-contamination between circuits
  • External leakage at connections caused by damaged joints, vibration or piping loads produces visible fluid loss
  • Freezing, thermal shock or operation outside the approved pressure and temperature envelope can damage the plate pack and lead to leakage
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine central and auxiliary cooling circuits, jacket-water and lubricating-oil cooling, fuel or cargo-support heating/cooling, HVAC and other compact heat-transfer duties appropriate to the installed materials.
Manufacturer Datasheet
Datasheet
CBM27-150P
Model number
CBM27-150P
Plate count (min)
10 plates
Plate count (max)
90 plates
Max flow rate
8.5 m3/h
Design pressure
33 bar
Application
marine, certified for marine duty
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
70 plates
Effective flow rate at duty point
8.5 m3/h
Configuration
150P configuration
Common Failures & Inspection Points
  • Fouling or scaling inside the narrow plate channels reduces heat-transfer performance and increases pressure drop
  • Blocked strainers or restricted upstream piping reduce flow and produce abnormal outlet temperatures
  • Corrosion, erosion or fatigue damage to the bonded plate pack can cause internal cross-contamination between circuits
  • External leakage at connections caused by damaged joints, vibration or piping loads produces visible fluid loss
  • Freezing, thermal shock or operation outside the approved pressure and temperature envelope can damage the plate pack and lead to leakage
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine central and auxiliary cooling circuits, jacket-water and lubricating-oil cooling, fuel or cargo-support heating/cooling, HVAC and other compact heat-transfer duties appropriate to the installed materials.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. CBM27-180P
CBM27-180P
Model number
CBM27-180P
Plate count (min)
10 plates
Plate count (max)
90 plates
Max flow rate
9.5 m3/h
Design pressure
33 bar
Application
marine, certified for marine duty
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
82 plates
Effective flow rate at duty point
9.5 m3/h
Configuration
180P configuration
Common Failures & Inspection Points
  • Fouling or scaling inside the narrow plate channels reduces heat-transfer performance and increases pressure drop
  • Blocked strainers or restricted upstream piping reduce flow and produce abnormal outlet temperatures
  • Corrosion, erosion or fatigue damage to the bonded plate pack can cause internal cross-contamination between circuits
  • External leakage at connections caused by damaged joints, vibration or piping loads produces visible fluid loss
  • Freezing, thermal shock or operation outside the approved pressure and temperature envelope can damage the plate pack and lead to leakage
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine central and auxiliary cooling circuits, jacket-water and lubricating-oil cooling, fuel or cargo-support heating/cooling, HVAC and other compact heat-transfer duties appropriate to the installed materials.
Manufacturer Datasheet
Datasheet
CBM27-MAX
Model number
CBM27-MAX
Plate count (min)
10 plates
Plate count (max)
90 plates
Max flow rate
10.0 m3/h
Design pressure
33 bar
Application
marine, certified for marine duty
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
90 plates
Effective flow rate at duty point
10.0 m3/h
Configuration
MAX configuration
Common Failures & Inspection Points
  • Fouling or scaling inside the narrow plate channels reduces heat-transfer performance and increases pressure drop
  • Blocked strainers or restricted upstream piping reduce flow and produce abnormal outlet temperatures
  • Corrosion, erosion or fatigue damage to the bonded plate pack can cause internal cross-contamination between circuits
  • External leakage at connections caused by damaged joints, vibration or piping loads produces visible fluid loss
  • Freezing, thermal shock or operation outside the approved pressure and temperature envelope can damage the plate pack and lead to leakage
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine central and auxiliary cooling circuits, jacket-water and lubricating-oil cooling, fuel or cargo-support heating/cooling, HVAC and other compact heat-transfer duties appropriate to the installed materials.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. CBM52
CBM52
Model number
CBM52
Plate count (min)
10 plates
Plate count (max)
120 plates
Max flow rate
25.0 m3/h
Design pressure
33 bar
Application
marine, certified for marine duty
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Common Failures & Inspection Points
  • Fouling or scaling inside the narrow plate channels reduces heat-transfer performance and increases pressure drop
  • Blocked strainers or restricted upstream piping reduce flow and produce abnormal outlet temperatures
  • Corrosion, erosion or fatigue damage to the bonded plate pack can cause internal cross-contamination between circuits
  • External leakage at connections caused by damaged joints, vibration or piping loads produces visible fluid loss
  • Freezing, thermal shock or operation outside the approved pressure and temperature envelope can damage the plate pack and lead to leakage
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine central and auxiliary cooling circuits, jacket-water and lubricating-oil cooling, fuel or cargo-support heating/cooling, HVAC and other compact heat-transfer duties appropriate to the installed materials.
Manufacturer Datasheet
Datasheet
CBM52-30P
Model number
CBM52-30P
Plate count (min)
10 plates
Plate count (max)
120 plates
Max flow rate
5.0 m3/h
Design pressure
33 bar
Application
marine, certified for marine duty
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
26 plates
Effective flow rate at duty point
5.0 m3/h
Configuration
30P configuration
Common Failures & Inspection Points
  • Fouling or scaling inside the narrow plate channels reduces heat-transfer performance and increases pressure drop
  • Blocked strainers or restricted upstream piping reduce flow and produce abnormal outlet temperatures
  • Corrosion, erosion or fatigue damage to the bonded plate pack can cause internal cross-contamination between circuits
  • External leakage at connections caused by damaged joints, vibration or piping loads produces visible fluid loss
  • Freezing, thermal shock or operation outside the approved pressure and temperature envelope can damage the plate pack and lead to leakage
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine central and auxiliary cooling circuits, jacket-water and lubricating-oil cooling, fuel or cargo-support heating/cooling, HVAC and other compact heat-transfer duties appropriate to the installed materials.
Manufacturer Datasheet
Datasheet
CBM52-60P
Model number
CBM52-60P
Plate count (min)
10 plates
Plate count (max)
120 plates
Max flow rate
9.5 m3/h
Design pressure
33 bar
Application
marine, certified for marine duty
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
43 plates
Effective flow rate at duty point
9.5 m3/h
Configuration
60P configuration
Common Failures & Inspection Points
  • Fouling or scaling inside the narrow plate channels reduces heat-transfer performance and increases pressure drop
  • Blocked strainers or restricted upstream piping reduce flow and produce abnormal outlet temperatures
  • Corrosion, erosion or fatigue damage to the bonded plate pack can cause internal cross-contamination between circuits
  • External leakage at connections caused by damaged joints, vibration or piping loads produces visible fluid loss
  • Freezing, thermal shock or operation outside the approved pressure and temperature envelope can damage the plate pack and lead to leakage
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine central and auxiliary cooling circuits, jacket-water and lubricating-oil cooling, fuel or cargo-support heating/cooling, HVAC and other compact heat-transfer duties appropriate to the installed materials.
Manufacturer Datasheet
Datasheet
CBM52-90P
Model number
CBM52-90P
Plate count (min)
10 plates
Plate count (max)
120 plates
Max flow rate
13.8 m3/h
Design pressure
33 bar
Application
marine, certified for marine duty
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
59 plates
Effective flow rate at duty point
13.8 m3/h
Configuration
90P configuration
Common Failures & Inspection Points
  • Fouling or scaling inside the narrow plate channels reduces heat-transfer performance and increases pressure drop
  • Blocked strainers or restricted upstream piping reduce flow and produce abnormal outlet temperatures
  • Corrosion, erosion or fatigue damage to the bonded plate pack can cause internal cross-contamination between circuits
  • External leakage at connections caused by damaged joints, vibration or piping loads produces visible fluid loss
  • Freezing, thermal shock or operation outside the approved pressure and temperature envelope can damage the plate pack and lead to leakage
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine central and auxiliary cooling circuits, jacket-water and lubricating-oil cooling, fuel or cargo-support heating/cooling, HVAC and other compact heat-transfer duties appropriate to the installed materials.
Manufacturer Datasheet
Datasheet
CBM52-120P
Model number
CBM52-120P
Plate count (min)
10 plates
Plate count (max)
120 plates
Max flow rate
17.5 m3/h
Design pressure
33 bar
Application
marine, certified for marine duty
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
76 plates
Effective flow rate at duty point
17.5 m3/h
Configuration
120P configuration
Common Failures & Inspection Points
  • Fouling or scaling inside the narrow plate channels reduces heat-transfer performance and increases pressure drop
  • Blocked strainers or restricted upstream piping reduce flow and produce abnormal outlet temperatures
  • Corrosion, erosion or fatigue damage to the bonded plate pack can cause internal cross-contamination between circuits
  • External leakage at connections caused by damaged joints, vibration or piping loads produces visible fluid loss
  • Freezing, thermal shock or operation outside the approved pressure and temperature envelope can damage the plate pack and lead to leakage
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine central and auxiliary cooling circuits, jacket-water and lubricating-oil cooling, fuel or cargo-support heating/cooling, HVAC and other compact heat-transfer duties appropriate to the installed materials.
Manufacturer Datasheet
Datasheet
CBM52-150P
Model number
CBM52-150P
Plate count (min)
10 plates
Plate count (max)
120 plates
Max flow rate
21.2 m3/h
Design pressure
33 bar
Application
marine, certified for marine duty
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
92 plates
Effective flow rate at duty point
21.2 m3/h
Configuration
150P configuration
Common Failures & Inspection Points
  • Fouling or scaling inside the narrow plate channels reduces heat-transfer performance and increases pressure drop
  • Blocked strainers or restricted upstream piping reduce flow and produce abnormal outlet temperatures
  • Corrosion, erosion or fatigue damage to the bonded plate pack can cause internal cross-contamination between circuits
  • External leakage at connections caused by damaged joints, vibration or piping loads produces visible fluid loss
  • Freezing, thermal shock or operation outside the approved pressure and temperature envelope can damage the plate pack and lead to leakage
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine central and auxiliary cooling circuits, jacket-water and lubricating-oil cooling, fuel or cargo-support heating/cooling, HVAC and other compact heat-transfer duties appropriate to the installed materials.
Manufacturer Datasheet
Datasheet
CBM52-180P
Model number
CBM52-180P
Plate count (min)
10 plates
Plate count (max)
120 plates
Max flow rate
23.8 m3/h
Design pressure
33 bar
Application
marine, certified for marine duty
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
109 plates
Effective flow rate at duty point
23.8 m3/h
Configuration
180P configuration
Common Failures & Inspection Points
  • Fouling or scaling inside the narrow plate channels reduces heat-transfer performance and increases pressure drop
  • Blocked strainers or restricted upstream piping reduce flow and produce abnormal outlet temperatures
  • Corrosion, erosion or fatigue damage to the bonded plate pack can cause internal cross-contamination between circuits
  • External leakage at connections caused by damaged joints, vibration or piping loads produces visible fluid loss
  • Freezing, thermal shock or operation outside the approved pressure and temperature envelope can damage the plate pack and lead to leakage
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine central and auxiliary cooling circuits, jacket-water and lubricating-oil cooling, fuel or cargo-support heating/cooling, HVAC and other compact heat-transfer duties appropriate to the installed materials.
Manufacturer Datasheet
Datasheet
CBM52-MAX
Model number
CBM52-MAX
Plate count (min)
10 plates
Plate count (max)
120 plates
Max flow rate
25.0 m3/h
Design pressure
33 bar
Application
marine, certified for marine duty
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
120 plates
Effective flow rate at duty point
25.0 m3/h
Configuration
MAX configuration
Common Failures & Inspection Points
  • Fouling or scaling inside the narrow plate channels reduces heat-transfer performance and increases pressure drop
  • Blocked strainers or restricted upstream piping reduce flow and produce abnormal outlet temperatures
  • Corrosion, erosion or fatigue damage to the bonded plate pack can cause internal cross-contamination between circuits
  • External leakage at connections caused by damaged joints, vibration or piping loads produces visible fluid loss
  • Freezing, thermal shock or operation outside the approved pressure and temperature envelope can damage the plate pack and lead to leakage
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine central and auxiliary cooling circuits, jacket-water and lubricating-oil cooling, fuel or cargo-support heating/cooling, HVAC and other compact heat-transfer duties appropriate to the installed materials.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. CBM65
CBM65
Model number
CBM65
Plate count (min)
16 plates
Plate count (max)
200 plates
Max flow rate
60.0 m3/h
Design pressure
33 bar
Application
marine, certified for marine duty
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Common Failures & Inspection Points
  • Fouling or scaling inside the narrow plate channels reduces heat-transfer performance and increases pressure drop
  • Blocked strainers or restricted upstream piping reduce flow and produce abnormal outlet temperatures
  • Corrosion, erosion or fatigue damage to the bonded plate pack can cause internal cross-contamination between circuits
  • External leakage at connections caused by damaged joints, vibration or piping loads produces visible fluid loss
  • Freezing, thermal shock or operation outside the approved pressure and temperature envelope can damage the plate pack and lead to leakage
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine central and auxiliary cooling circuits, jacket-water and lubricating-oil cooling, fuel or cargo-support heating/cooling, HVAC and other compact heat-transfer duties appropriate to the installed materials.
Manufacturer Datasheet
Datasheet
CBM65-30P
Model number
CBM65-30P
Plate count (min)
16 plates
Plate count (max)
200 plates
Max flow rate
12.0 m3/h
Design pressure
33 bar
Application
marine, certified for marine duty
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
43 plates
Effective flow rate at duty point
12.0 m3/h
Configuration
30P configuration
Common Failures & Inspection Points
  • Fouling or scaling inside the narrow plate channels reduces heat-transfer performance and increases pressure drop
  • Blocked strainers or restricted upstream piping reduce flow and produce abnormal outlet temperatures
  • Corrosion, erosion or fatigue damage to the bonded plate pack can cause internal cross-contamination between circuits
  • External leakage at connections caused by damaged joints, vibration or piping loads produces visible fluid loss
  • Freezing, thermal shock or operation outside the approved pressure and temperature envelope can damage the plate pack and lead to leakage
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine central and auxiliary cooling circuits, jacket-water and lubricating-oil cooling, fuel or cargo-support heating/cooling, HVAC and other compact heat-transfer duties appropriate to the installed materials.
Manufacturer Datasheet
Datasheet
CBM65-60P
Model number
CBM65-60P
Plate count (min)
16 plates
Plate count (max)
200 plates
Max flow rate
22.8 m3/h
Design pressure
33 bar
Application
marine, certified for marine duty
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
71 plates
Effective flow rate at duty point
22.8 m3/h
Configuration
60P configuration
Common Failures & Inspection Points
  • Fouling or scaling inside the narrow plate channels reduces heat-transfer performance and increases pressure drop
  • Blocked strainers or restricted upstream piping reduce flow and produce abnormal outlet temperatures
  • Corrosion, erosion or fatigue damage to the bonded plate pack can cause internal cross-contamination between circuits
  • External leakage at connections caused by damaged joints, vibration or piping loads produces visible fluid loss
  • Freezing, thermal shock or operation outside the approved pressure and temperature envelope can damage the plate pack and lead to leakage
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine central and auxiliary cooling circuits, jacket-water and lubricating-oil cooling, fuel or cargo-support heating/cooling, HVAC and other compact heat-transfer duties appropriate to the installed materials.
Manufacturer Datasheet
Datasheet
CBM65-90P
Model number
CBM65-90P
Plate count (min)
16 plates
Plate count (max)
200 plates
Max flow rate
33.0 m3/h
Design pressure
33 bar
Application
marine, certified for marine duty
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
98 plates
Effective flow rate at duty point
33.0 m3/h
Configuration
90P configuration
Common Failures & Inspection Points
  • Fouling or scaling inside the narrow plate channels reduces heat-transfer performance and increases pressure drop
  • Blocked strainers or restricted upstream piping reduce flow and produce abnormal outlet temperatures
  • Corrosion, erosion or fatigue damage to the bonded plate pack can cause internal cross-contamination between circuits
  • External leakage at connections caused by damaged joints, vibration or piping loads produces visible fluid loss
  • Freezing, thermal shock or operation outside the approved pressure and temperature envelope can damage the plate pack and lead to leakage
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine central and auxiliary cooling circuits, jacket-water and lubricating-oil cooling, fuel or cargo-support heating/cooling, HVAC and other compact heat-transfer duties appropriate to the installed materials.
Manufacturer Datasheet
Datasheet
CBM65-120P
Model number
CBM65-120P
Plate count (min)
16 plates
Plate count (max)
200 plates
Max flow rate
42.0 m3/h
Design pressure
33 bar
Application
marine, certified for marine duty
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
126 plates
Effective flow rate at duty point
42.0 m3/h
Configuration
120P configuration
Common Failures & Inspection Points
  • Fouling or scaling inside the narrow plate channels reduces heat-transfer performance and increases pressure drop
  • Blocked strainers or restricted upstream piping reduce flow and produce abnormal outlet temperatures
  • Corrosion, erosion or fatigue damage to the bonded plate pack can cause internal cross-contamination between circuits
  • External leakage at connections caused by damaged joints, vibration or piping loads produces visible fluid loss
  • Freezing, thermal shock or operation outside the approved pressure and temperature envelope can damage the plate pack and lead to leakage
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine central and auxiliary cooling circuits, jacket-water and lubricating-oil cooling, fuel or cargo-support heating/cooling, HVAC and other compact heat-transfer duties appropriate to the installed materials.
Manufacturer Datasheet
Datasheet
CBM65-150P
Model number
CBM65-150P
Plate count (min)
16 plates
Plate count (max)
200 plates
Max flow rate
51.0 m3/h
Design pressure
33 bar
Application
marine, certified for marine duty
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
154 plates
Effective flow rate at duty point
51.0 m3/h
Configuration
150P configuration
Common Failures & Inspection Points
  • Fouling or scaling inside the narrow plate channels reduces heat-transfer performance and increases pressure drop
  • Blocked strainers or restricted upstream piping reduce flow and produce abnormal outlet temperatures
  • Corrosion, erosion or fatigue damage to the bonded plate pack can cause internal cross-contamination between circuits
  • External leakage at connections caused by damaged joints, vibration or piping loads produces visible fluid loss
  • Freezing, thermal shock or operation outside the approved pressure and temperature envelope can damage the plate pack and lead to leakage
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine central and auxiliary cooling circuits, jacket-water and lubricating-oil cooling, fuel or cargo-support heating/cooling, HVAC and other compact heat-transfer duties appropriate to the installed materials.
Manufacturer Datasheet
Datasheet
CBM65-180P
Model number
CBM65-180P
Plate count (min)
16 plates
Plate count (max)
200 plates
Max flow rate
57.0 m3/h
Design pressure
33 bar
Application
marine, certified for marine duty
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
181 plates
Effective flow rate at duty point
57.0 m3/h
Configuration
180P configuration
Common Failures & Inspection Points
  • Fouling or scaling inside the narrow plate channels reduces heat-transfer performance and increases pressure drop
  • Blocked strainers or restricted upstream piping reduce flow and produce abnormal outlet temperatures
  • Corrosion, erosion or fatigue damage to the bonded plate pack can cause internal cross-contamination between circuits
  • External leakage at connections caused by damaged joints, vibration or piping loads produces visible fluid loss
  • Freezing, thermal shock or operation outside the approved pressure and temperature envelope can damage the plate pack and lead to leakage
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine central and auxiliary cooling circuits, jacket-water and lubricating-oil cooling, fuel or cargo-support heating/cooling, HVAC and other compact heat-transfer duties appropriate to the installed materials.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. CBM65-MAX
CBM65-MAX
Model number
CBM65-MAX
Plate count (min)
16 plates
Plate count (max)
200 plates
Max flow rate
60.0 m3/h
Design pressure
33 bar
Application
marine, certified for marine duty
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
200 plates
Effective flow rate at duty point
60.0 m3/h
Configuration
MAX configuration
Common Failures & Inspection Points
  • Fouling or scaling inside the narrow plate channels reduces heat-transfer performance and increases pressure drop
  • Blocked strainers or restricted upstream piping reduce flow and produce abnormal outlet temperatures
  • Corrosion, erosion or fatigue damage to the bonded plate pack can cause internal cross-contamination between circuits
  • External leakage at connections caused by damaged joints, vibration or piping loads produces visible fluid loss
  • Freezing, thermal shock or operation outside the approved pressure and temperature envelope can damage the plate pack and lead to leakage
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine central and auxiliary cooling circuits, jacket-water and lubricating-oil cooling, fuel or cargo-support heating/cooling, HVAC and other compact heat-transfer duties appropriate to the installed materials.
Manufacturer Datasheet
Datasheet
CBM76
Model number
CBM76
Plate count (min)
20 plates
Plate count (max)
220 plates
Max flow rate
75.0 m3/h
Design pressure
33 bar
Application
marine, certified for marine duty
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Common Failures & Inspection Points
  • Fouling or scaling inside the narrow plate channels reduces heat-transfer performance and increases pressure drop
  • Blocked strainers or restricted upstream piping reduce flow and produce abnormal outlet temperatures
  • Corrosion, erosion or fatigue damage to the bonded plate pack can cause internal cross-contamination between circuits
  • External leakage at connections caused by damaged joints, vibration or piping loads produces visible fluid loss
  • Freezing, thermal shock or operation outside the approved pressure and temperature envelope can damage the plate pack and lead to leakage
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine central and auxiliary cooling circuits, jacket-water and lubricating-oil cooling, fuel or cargo-support heating/cooling, HVAC and other compact heat-transfer duties appropriate to the installed materials.
Manufacturer Datasheet
Datasheet
CBM76-30P
Model number
CBM76-30P
Plate count (min)
20 plates
Plate count (max)
220 plates
Max flow rate
15.0 m3/h
Design pressure
33 bar
Application
marine, certified for marine duty
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
50 plates
Effective flow rate at duty point
15.0 m3/h
Configuration
30P configuration
Common Failures & Inspection Points
  • Fouling or scaling inside the narrow plate channels reduces heat-transfer performance and increases pressure drop
  • Blocked strainers or restricted upstream piping reduce flow and produce abnormal outlet temperatures
  • Corrosion, erosion or fatigue damage to the bonded plate pack can cause internal cross-contamination between circuits
  • External leakage at connections caused by damaged joints, vibration or piping loads produces visible fluid loss
  • Freezing, thermal shock or operation outside the approved pressure and temperature envelope can damage the plate pack and lead to leakage
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine central and auxiliary cooling circuits, jacket-water and lubricating-oil cooling, fuel or cargo-support heating/cooling, HVAC and other compact heat-transfer duties appropriate to the installed materials.
Manufacturer Datasheet
Datasheet
CBM76-60P
Model number
CBM76-60P
Plate count (min)
20 plates
Plate count (max)
220 plates
Max flow rate
28.5 m3/h
Design pressure
33 bar
Application
marine, certified for marine duty
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
80 plates
Effective flow rate at duty point
28.5 m3/h
Configuration
60P configuration
Common Failures & Inspection Points
  • Fouling or scaling inside the narrow plate channels reduces heat-transfer performance and increases pressure drop
  • Blocked strainers or restricted upstream piping reduce flow and produce abnormal outlet temperatures
  • Corrosion, erosion or fatigue damage to the bonded plate pack can cause internal cross-contamination between circuits
  • External leakage at connections caused by damaged joints, vibration or piping loads produces visible fluid loss
  • Freezing, thermal shock or operation outside the approved pressure and temperature envelope can damage the plate pack and lead to leakage
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine central and auxiliary cooling circuits, jacket-water and lubricating-oil cooling, fuel or cargo-support heating/cooling, HVAC and other compact heat-transfer duties appropriate to the installed materials.
Manufacturer Datasheet
Datasheet
CBM76-90P
Model number
CBM76-90P
Plate count (min)
20 plates
Plate count (max)
220 plates
Max flow rate
41.2 m3/h
Design pressure
33 bar
Application
marine, certified for marine duty
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
110 plates
Effective flow rate at duty point
41.2 m3/h
Configuration
90P configuration
Common Failures & Inspection Points
  • Fouling or scaling inside the narrow plate channels reduces heat-transfer performance and increases pressure drop
  • Blocked strainers or restricted upstream piping reduce flow and produce abnormal outlet temperatures
  • Corrosion, erosion or fatigue damage to the bonded plate pack can cause internal cross-contamination between circuits
  • External leakage at connections caused by damaged joints, vibration or piping loads produces visible fluid loss
  • Freezing, thermal shock or operation outside the approved pressure and temperature envelope can damage the plate pack and lead to leakage
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine central and auxiliary cooling circuits, jacket-water and lubricating-oil cooling, fuel or cargo-support heating/cooling, HVAC and other compact heat-transfer duties appropriate to the installed materials.
Manufacturer Datasheet
Datasheet
CBM76-120P
Model number
CBM76-120P
Plate count (min)
20 plates
Plate count (max)
220 plates
Max flow rate
52.5 m3/h
Design pressure
33 bar
Application
marine, certified for marine duty
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
140 plates
Effective flow rate at duty point
52.5 m3/h
Configuration
120P configuration
Common Failures & Inspection Points
  • Fouling or scaling inside the narrow plate channels reduces heat-transfer performance and increases pressure drop
  • Blocked strainers or restricted upstream piping reduce flow and produce abnormal outlet temperatures
  • Corrosion, erosion or fatigue damage to the bonded plate pack can cause internal cross-contamination between circuits
  • External leakage at connections caused by damaged joints, vibration or piping loads produces visible fluid loss
  • Freezing, thermal shock or operation outside the approved pressure and temperature envelope can damage the plate pack and lead to leakage
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine central and auxiliary cooling circuits, jacket-water and lubricating-oil cooling, fuel or cargo-support heating/cooling, HVAC and other compact heat-transfer duties appropriate to the installed materials.
Manufacturer Datasheet
Datasheet
CBM76-150P
Model number
CBM76-150P
Plate count (min)
20 plates
Plate count (max)
220 plates
Max flow rate
63.8 m3/h
Design pressure
33 bar
Application
marine, certified for marine duty
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
170 plates
Effective flow rate at duty point
63.8 m3/h
Configuration
150P configuration
Common Failures & Inspection Points
  • Fouling or scaling inside the narrow plate channels reduces heat-transfer performance and increases pressure drop
  • Blocked strainers or restricted upstream piping reduce flow and produce abnormal outlet temperatures
  • Corrosion, erosion or fatigue damage to the bonded plate pack can cause internal cross-contamination between circuits
  • External leakage at connections caused by damaged joints, vibration or piping loads produces visible fluid loss
  • Freezing, thermal shock or operation outside the approved pressure and temperature envelope can damage the plate pack and lead to leakage
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine central and auxiliary cooling circuits, jacket-water and lubricating-oil cooling, fuel or cargo-support heating/cooling, HVAC and other compact heat-transfer duties appropriate to the installed materials.
Manufacturer Datasheet
Datasheet
CBM76-180P
Model number
CBM76-180P
Plate count (min)
20 plates
Plate count (max)
220 plates
Max flow rate
71.2 m3/h
Design pressure
33 bar
Application
marine, certified for marine duty
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
200 plates
Effective flow rate at duty point
71.2 m3/h
Configuration
180P configuration
Common Failures & Inspection Points
  • Fouling or scaling inside the narrow plate channels reduces heat-transfer performance and increases pressure drop
  • Blocked strainers or restricted upstream piping reduce flow and produce abnormal outlet temperatures
  • Corrosion, erosion or fatigue damage to the bonded plate pack can cause internal cross-contamination between circuits
  • External leakage at connections caused by damaged joints, vibration or piping loads produces visible fluid loss
  • Freezing, thermal shock or operation outside the approved pressure and temperature envelope can damage the plate pack and lead to leakage
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine central and auxiliary cooling circuits, jacket-water and lubricating-oil cooling, fuel or cargo-support heating/cooling, HVAC and other compact heat-transfer duties appropriate to the installed materials.
Manufacturer Datasheet
Datasheet
CBM76-MAX
Model number
CBM76-MAX
Plate count (min)
20 plates
Plate count (max)
220 plates
Max flow rate
75.0 m3/h
Design pressure
33 bar
Application
marine, certified for marine duty
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
220 plates
Effective flow rate at duty point
75.0 m3/h
Configuration
MAX configuration
Common Failures & Inspection Points
  • Fouling or scaling inside the narrow plate channels reduces heat-transfer performance and increases pressure drop
  • Blocked strainers or restricted upstream piping reduce flow and produce abnormal outlet temperatures
  • Corrosion, erosion or fatigue damage to the bonded plate pack can cause internal cross-contamination between circuits
  • External leakage at connections caused by damaged joints, vibration or piping loads produces visible fluid loss
  • Freezing, thermal shock or operation outside the approved pressure and temperature envelope can damage the plate pack and lead to leakage
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine central and auxiliary cooling circuits, jacket-water and lubricating-oil cooling, fuel or cargo-support heating/cooling, HVAC and other compact heat-transfer duties appropriate to the installed materials.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. CBM112
CBM112
Model number
CBM112
Plate count (min)
20 plates
Plate count (max)
250 plates
Max flow rate
90.0 m3/h
Design pressure
33 bar
Application
marine, certified for marine duty
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Common Failures & Inspection Points
  • Fouling or scaling inside the narrow plate channels reduces heat-transfer performance and increases pressure drop
  • Blocked strainers or restricted upstream piping reduce flow and produce abnormal outlet temperatures
  • Corrosion, erosion or fatigue damage to the bonded plate pack can cause internal cross-contamination between circuits
  • External leakage at connections caused by damaged joints, vibration or piping loads produces visible fluid loss
  • Freezing, thermal shock or operation outside the approved pressure and temperature envelope can damage the plate pack and lead to leakage
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine central and auxiliary cooling circuits, jacket-water and lubricating-oil cooling, fuel or cargo-support heating/cooling, HVAC and other compact heat-transfer duties appropriate to the installed materials.
Manufacturer Datasheet
Datasheet
CBM112-30P
Model number
CBM112-30P
Plate count (min)
20 plates
Plate count (max)
250 plates
Max flow rate
18.0 m3/h
Design pressure
33 bar
Application
marine, certified for marine duty
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
54 plates
Effective flow rate at duty point
18.0 m3/h
Configuration
30P configuration
Common Failures & Inspection Points
  • Fouling or scaling inside the narrow plate channels reduces heat-transfer performance and increases pressure drop
  • Blocked strainers or restricted upstream piping reduce flow and produce abnormal outlet temperatures
  • Corrosion, erosion or fatigue damage to the bonded plate pack can cause internal cross-contamination between circuits
  • External leakage at connections caused by damaged joints, vibration or piping loads produces visible fluid loss
  • Freezing, thermal shock or operation outside the approved pressure and temperature envelope can damage the plate pack and lead to leakage
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine central and auxiliary cooling circuits, jacket-water and lubricating-oil cooling, fuel or cargo-support heating/cooling, HVAC and other compact heat-transfer duties appropriate to the installed materials.
Manufacturer Datasheet
Datasheet
CBM112-60P
Model number
CBM112-60P
Plate count (min)
20 plates
Plate count (max)
250 plates
Max flow rate
34.2 m3/h
Design pressure
33 bar
Application
marine, certified for marine duty
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
89 plates
Effective flow rate at duty point
34.2 m3/h
Configuration
60P configuration
Common Failures & Inspection Points
  • Fouling or scaling inside the narrow plate channels reduces heat-transfer performance and increases pressure drop
  • Blocked strainers or restricted upstream piping reduce flow and produce abnormal outlet temperatures
  • Corrosion, erosion or fatigue damage to the bonded plate pack can cause internal cross-contamination between circuits
  • External leakage at connections caused by damaged joints, vibration or piping loads produces visible fluid loss
  • Freezing, thermal shock or operation outside the approved pressure and temperature envelope can damage the plate pack and lead to leakage
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine central and auxiliary cooling circuits, jacket-water and lubricating-oil cooling, fuel or cargo-support heating/cooling, HVAC and other compact heat-transfer duties appropriate to the installed materials.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. CBM112-90P
CBM112-90P
Model number
CBM112-90P
Plate count (min)
20 plates
Plate count (max)
250 plates
Max flow rate
49.5 m3/h
Design pressure
33 bar
Application
marine, certified for marine duty
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
123 plates
Effective flow rate at duty point
49.5 m3/h
Configuration
90P configuration
Common Failures & Inspection Points
  • Fouling or scaling inside the narrow plate channels reduces heat-transfer performance and increases pressure drop
  • Blocked strainers or restricted upstream piping reduce flow and produce abnormal outlet temperatures
  • Corrosion, erosion or fatigue damage to the bonded plate pack can cause internal cross-contamination between circuits
  • External leakage at connections caused by damaged joints, vibration or piping loads produces visible fluid loss
  • Freezing, thermal shock or operation outside the approved pressure and temperature envelope can damage the plate pack and lead to leakage
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine central and auxiliary cooling circuits, jacket-water and lubricating-oil cooling, fuel or cargo-support heating/cooling, HVAC and other compact heat-transfer duties appropriate to the installed materials.
Manufacturer Datasheet
Datasheet
CBM112-120P
Model number
CBM112-120P
Plate count (min)
20 plates
Plate count (max)
250 plates
Max flow rate
63.0 m3/h
Design pressure
33 bar
Application
marine, certified for marine duty
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
158 plates
Effective flow rate at duty point
63.0 m3/h
Configuration
120P configuration
Common Failures & Inspection Points
  • Fouling or scaling inside the narrow plate channels reduces heat-transfer performance and increases pressure drop
  • Blocked strainers or restricted upstream piping reduce flow and produce abnormal outlet temperatures
  • Corrosion, erosion or fatigue damage to the bonded plate pack can cause internal cross-contamination between circuits
  • External leakage at connections caused by damaged joints, vibration or piping loads produces visible fluid loss
  • Freezing, thermal shock or operation outside the approved pressure and temperature envelope can damage the plate pack and lead to leakage
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine central and auxiliary cooling circuits, jacket-water and lubricating-oil cooling, fuel or cargo-support heating/cooling, HVAC and other compact heat-transfer duties appropriate to the installed materials.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. CBM112-150P
CBM112-150P
Model number
CBM112-150P
Plate count (min)
20 plates
Plate count (max)
250 plates
Max flow rate
76.5 m3/h
Design pressure
33 bar
Application
marine, certified for marine duty
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
192 plates
Effective flow rate at duty point
76.5 m3/h
Configuration
150P configuration
Common Failures & Inspection Points
  • Fouling or scaling inside the narrow plate channels reduces heat-transfer performance and increases pressure drop
  • Blocked strainers or restricted upstream piping reduce flow and produce abnormal outlet temperatures
  • Corrosion, erosion or fatigue damage to the bonded plate pack can cause internal cross-contamination between circuits
  • External leakage at connections caused by damaged joints, vibration or piping loads produces visible fluid loss
  • Freezing, thermal shock or operation outside the approved pressure and temperature envelope can damage the plate pack and lead to leakage
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine central and auxiliary cooling circuits, jacket-water and lubricating-oil cooling, fuel or cargo-support heating/cooling, HVAC and other compact heat-transfer duties appropriate to the installed materials.
Manufacturer Datasheet
Datasheet
CBM112-180P
Model number
CBM112-180P
Plate count (min)
20 plates
Plate count (max)
250 plates
Max flow rate
85.5 m3/h
Design pressure
33 bar
Application
marine, certified for marine duty
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
227 plates
Effective flow rate at duty point
85.5 m3/h
Configuration
180P configuration
Common Failures & Inspection Points
  • Fouling or scaling inside the narrow plate channels reduces heat-transfer performance and increases pressure drop
  • Blocked strainers or restricted upstream piping reduce flow and produce abnormal outlet temperatures
  • Corrosion, erosion or fatigue damage to the bonded plate pack can cause internal cross-contamination between circuits
  • External leakage at connections caused by damaged joints, vibration or piping loads produces visible fluid loss
  • Freezing, thermal shock or operation outside the approved pressure and temperature envelope can damage the plate pack and lead to leakage
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine central and auxiliary cooling circuits, jacket-water and lubricating-oil cooling, fuel or cargo-support heating/cooling, HVAC and other compact heat-transfer duties appropriate to the installed materials.
Manufacturer Datasheet
Datasheet
CBM112-MAX
Model number
CBM112-MAX
Plate count (min)
20 plates
Plate count (max)
250 plates
Max flow rate
90.0 m3/h
Design pressure
33 bar
Application
marine, certified for marine duty
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
250 plates
Effective flow rate at duty point
90.0 m3/h
Configuration
MAX configuration
Common Failures & Inspection Points
  • Fouling or scaling inside the narrow plate channels reduces heat-transfer performance and increases pressure drop
  • Blocked strainers or restricted upstream piping reduce flow and produce abnormal outlet temperatures
  • Corrosion, erosion or fatigue damage to the bonded plate pack can cause internal cross-contamination between circuits
  • External leakage at connections caused by damaged joints, vibration or piping loads produces visible fluid loss
  • Freezing, thermal shock or operation outside the approved pressure and temperature envelope can damage the plate pack and lead to leakage
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine central and auxiliary cooling circuits, jacket-water and lubricating-oil cooling, fuel or cargo-support heating/cooling, HVAC and other compact heat-transfer duties appropriate to the installed materials.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. CBM200
CBM200
Model number
CBM200
Plate count (min)
20 plates
Plate count (max)
250 plates
Max flow rate
145.0 m3/h
Design pressure
33 bar
Application
marine, certified for marine duty
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Common Failures & Inspection Points
  • Fouling or scaling inside the narrow plate channels reduces heat-transfer performance and increases pressure drop
  • Blocked strainers or restricted upstream piping reduce flow and produce abnormal outlet temperatures
  • Corrosion, erosion or fatigue damage to the bonded plate pack can cause internal cross-contamination between circuits
  • External leakage at connections caused by damaged joints, vibration or piping loads produces visible fluid loss
  • Freezing, thermal shock or operation outside the approved pressure and temperature envelope can damage the plate pack and lead to leakage
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine central and auxiliary cooling circuits, jacket-water and lubricating-oil cooling, fuel or cargo-support heating/cooling, HVAC and other compact heat-transfer duties appropriate to the installed materials.
Manufacturer Datasheet
Datasheet
CBM200-30P
Model number
CBM200-30P
Plate count (min)
20 plates
Plate count (max)
250 plates
Max flow rate
29.0 m3/h
Design pressure
33 bar
Application
marine, certified for marine duty
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
54 plates
Effective flow rate at duty point
29.0 m3/h
Configuration
30P configuration
Common Failures & Inspection Points
  • Fouling or scaling inside the narrow plate channels reduces heat-transfer performance and increases pressure drop
  • Blocked strainers or restricted upstream piping reduce flow and produce abnormal outlet temperatures
  • Corrosion, erosion or fatigue damage to the bonded plate pack can cause internal cross-contamination between circuits
  • External leakage at connections caused by damaged joints, vibration or piping loads produces visible fluid loss
  • Freezing, thermal shock or operation outside the approved pressure and temperature envelope can damage the plate pack and lead to leakage
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine central and auxiliary cooling circuits, jacket-water and lubricating-oil cooling, fuel or cargo-support heating/cooling, HVAC and other compact heat-transfer duties appropriate to the installed materials.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. CBM200-60P
CBM200-60P
Model number
CBM200-60P
Plate count (min)
20 plates
Plate count (max)
250 plates
Max flow rate
55.1 m3/h
Design pressure
33 bar
Application
marine, certified for marine duty
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
89 plates
Effective flow rate at duty point
55.1 m3/h
Configuration
60P configuration
Common Failures & Inspection Points
  • Fouling or scaling inside the narrow plate channels reduces heat-transfer performance and increases pressure drop
  • Blocked strainers or restricted upstream piping reduce flow and produce abnormal outlet temperatures
  • Corrosion, erosion or fatigue damage to the bonded plate pack can cause internal cross-contamination between circuits
  • External leakage at connections caused by damaged joints, vibration or piping loads produces visible fluid loss
  • Freezing, thermal shock or operation outside the approved pressure and temperature envelope can damage the plate pack and lead to leakage
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine central and auxiliary cooling circuits, jacket-water and lubricating-oil cooling, fuel or cargo-support heating/cooling, HVAC and other compact heat-transfer duties appropriate to the installed materials.
Manufacturer Datasheet
Datasheet
CBM200-90P
Model number
CBM200-90P
Plate count (min)
20 plates
Plate count (max)
250 plates
Max flow rate
79.8 m3/h
Design pressure
33 bar
Application
marine, certified for marine duty
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
123 plates
Effective flow rate at duty point
79.8 m3/h
Configuration
90P configuration
Common Failures & Inspection Points
  • Fouling or scaling inside the narrow plate channels reduces heat-transfer performance and increases pressure drop
  • Blocked strainers or restricted upstream piping reduce flow and produce abnormal outlet temperatures
  • Corrosion, erosion or fatigue damage to the bonded plate pack can cause internal cross-contamination between circuits
  • External leakage at connections caused by damaged joints, vibration or piping loads produces visible fluid loss
  • Freezing, thermal shock or operation outside the approved pressure and temperature envelope can damage the plate pack and lead to leakage
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine central and auxiliary cooling circuits, jacket-water and lubricating-oil cooling, fuel or cargo-support heating/cooling, HVAC and other compact heat-transfer duties appropriate to the installed materials.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. CBM200-120P
CBM200-120P
Model number
CBM200-120P
Plate count (min)
20 plates
Plate count (max)
250 plates
Max flow rate
101.5 m3/h
Design pressure
33 bar
Application
marine, certified for marine duty
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
158 plates
Effective flow rate at duty point
101.5 m3/h
Configuration
120P configuration
Common Failures & Inspection Points
  • Fouling or scaling inside the narrow plate channels reduces heat-transfer performance and increases pressure drop
  • Blocked strainers or restricted upstream piping reduce flow and produce abnormal outlet temperatures
  • Corrosion, erosion or fatigue damage to the bonded plate pack can cause internal cross-contamination between circuits
  • External leakage at connections caused by damaged joints, vibration or piping loads produces visible fluid loss
  • Freezing, thermal shock or operation outside the approved pressure and temperature envelope can damage the plate pack and lead to leakage
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine central and auxiliary cooling circuits, jacket-water and lubricating-oil cooling, fuel or cargo-support heating/cooling, HVAC and other compact heat-transfer duties appropriate to the installed materials.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. CBM200-150P
CBM200-150P
Model number
CBM200-150P
Plate count (min)
20 plates
Plate count (max)
250 plates
Max flow rate
123.2 m3/h
Design pressure
33 bar
Application
marine, certified for marine duty
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
192 plates
Effective flow rate at duty point
123.2 m3/h
Configuration
150P configuration
Common Failures & Inspection Points
  • Fouling or scaling inside the narrow plate channels reduces heat-transfer performance and increases pressure drop
  • Blocked strainers or restricted upstream piping reduce flow and produce abnormal outlet temperatures
  • Corrosion, erosion or fatigue damage to the bonded plate pack can cause internal cross-contamination between circuits
  • External leakage at connections caused by damaged joints, vibration or piping loads produces visible fluid loss
  • Freezing, thermal shock or operation outside the approved pressure and temperature envelope can damage the plate pack and lead to leakage
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine central and auxiliary cooling circuits, jacket-water and lubricating-oil cooling, fuel or cargo-support heating/cooling, HVAC and other compact heat-transfer duties appropriate to the installed materials.
Manufacturer Datasheet
Datasheet
CBM200-180P
Model number
CBM200-180P
Plate count (min)
20 plates
Plate count (max)
250 plates
Max flow rate
137.8 m3/h
Design pressure
33 bar
Application
marine, certified for marine duty
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
227 plates
Effective flow rate at duty point
137.8 m3/h
Configuration
180P configuration
Common Failures & Inspection Points
  • Fouling or scaling inside the narrow plate channels reduces heat-transfer performance and increases pressure drop
  • Blocked strainers or restricted upstream piping reduce flow and produce abnormal outlet temperatures
  • Corrosion, erosion or fatigue damage to the bonded plate pack can cause internal cross-contamination between circuits
  • External leakage at connections caused by damaged joints, vibration or piping loads produces visible fluid loss
  • Freezing, thermal shock or operation outside the approved pressure and temperature envelope can damage the plate pack and lead to leakage
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine central and auxiliary cooling circuits, jacket-water and lubricating-oil cooling, fuel or cargo-support heating/cooling, HVAC and other compact heat-transfer duties appropriate to the installed materials.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. CBM200-MAX
CBM200-MAX
Model number
CBM200-MAX
Plate count (min)
20 plates
Plate count (max)
250 plates
Max flow rate
145.0 m3/h
Design pressure
33 bar
Application
marine, certified for marine duty
Plate material
Stainless steel (AISI 316)
Brazing material
Copper
Plate count (configured)
250 plates
Effective flow rate at duty point
145.0 m3/h
Configuration
MAX configuration
Common Failures & Inspection Points
  • Fouling or scaling inside the narrow plate channels reduces heat-transfer performance and increases pressure drop
  • Blocked strainers or restricted upstream piping reduce flow and produce abnormal outlet temperatures
  • Corrosion, erosion or fatigue damage to the bonded plate pack can cause internal cross-contamination between circuits
  • External leakage at connections caused by damaged joints, vibration or piping loads produces visible fluid loss
  • Freezing, thermal shock or operation outside the approved pressure and temperature envelope can damage the plate pack and lead to leakage
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine central and auxiliary cooling circuits, jacket-water and lubricating-oil cooling, fuel or cargo-support heating/cooling, HVAC and other compact heat-transfer duties appropriate to the installed materials.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. AXP10
AXP10
Model number
AXP10
Plate count (min)
10 plates
Plate count (max)
150 plates
Max flow rate
35.0 m3/h
Design pressure
48 bar
Application
fusion-bonded all-stainless, marine corrosive duty
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Common Failures & Inspection Points
  • Fouling, oil films or contamination on the fluid side reduce heat transfer and can cause abnormal approach temperatures
  • Restricted strainers, poor refrigerant distribution or insufficient liquid flow causes unstable temperatures and reduced capacity
  • Fatigue, corrosion or damage to the bonded plate pack can create internal leakage between circuits, detected by contamination, pressure behaviour or loss of charge
  • External leakage at connections caused by vibration, thermal cycling or piping loads produces visible fluid loss or refrigerant alarms
  • Freezing, liquid hammer or operation outside the approved pressure and temperature envelope can permanently damage the plate pack
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine and industrial refrigeration, CO2 refrigeration systems, chillers, heat pumps, cold stores, refrigerated cargo installations and other approved high-pressure heat-transfer duties.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. AXP10-30P
AXP10-30P
Model number
AXP10-30P
Plate count (min)
10 plates
Plate count (max)
150 plates
Max flow rate
7.0 m3/h
Design pressure
48 bar
Application
fusion-bonded all-stainless, marine corrosive duty
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
31 plates
Effective flow rate at duty point
7.0 m3/h
Configuration
30P configuration
Common Failures & Inspection Points
  • Fouling, oil films or contamination on the fluid side reduce heat transfer and can cause abnormal approach temperatures
  • Restricted strainers, poor refrigerant distribution or insufficient liquid flow causes unstable temperatures and reduced capacity
  • Fatigue, corrosion or damage to the bonded plate pack can create internal leakage between circuits, detected by contamination, pressure behaviour or loss of charge
  • External leakage at connections caused by vibration, thermal cycling or piping loads produces visible fluid loss or refrigerant alarms
  • Freezing, liquid hammer or operation outside the approved pressure and temperature envelope can permanently damage the plate pack
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine and industrial refrigeration, CO2 refrigeration systems, chillers, heat pumps, cold stores, refrigerated cargo installations and other approved high-pressure heat-transfer duties.
Manufacturer Datasheet
Datasheet
AXP10-60P
Model number
AXP10-60P
Plate count (min)
10 plates
Plate count (max)
150 plates
Max flow rate
13.3 m3/h
Design pressure
48 bar
Application
fusion-bonded all-stainless, marine corrosive duty
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
52 plates
Effective flow rate at duty point
13.3 m3/h
Configuration
60P configuration
Common Failures & Inspection Points
  • Fouling, oil films or contamination on the fluid side reduce heat transfer and can cause abnormal approach temperatures
  • Restricted strainers, poor refrigerant distribution or insufficient liquid flow causes unstable temperatures and reduced capacity
  • Fatigue, corrosion or damage to the bonded plate pack can create internal leakage between circuits, detected by contamination, pressure behaviour or loss of charge
  • External leakage at connections caused by vibration, thermal cycling or piping loads produces visible fluid loss or refrigerant alarms
  • Freezing, liquid hammer or operation outside the approved pressure and temperature envelope can permanently damage the plate pack
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine and industrial refrigeration, CO2 refrigeration systems, chillers, heat pumps, cold stores, refrigerated cargo installations and other approved high-pressure heat-transfer duties.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. AXP10-90P
AXP10-90P
Model number
AXP10-90P
Plate count (min)
10 plates
Plate count (max)
150 plates
Max flow rate
19.2 m3/h
Design pressure
48 bar
Application
fusion-bonded all-stainless, marine corrosive duty
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
73 plates
Effective flow rate at duty point
19.2 m3/h
Configuration
90P configuration
Common Failures & Inspection Points
  • Fouling, oil films or contamination on the fluid side reduce heat transfer and can cause abnormal approach temperatures
  • Restricted strainers, poor refrigerant distribution or insufficient liquid flow causes unstable temperatures and reduced capacity
  • Fatigue, corrosion or damage to the bonded plate pack can create internal leakage between circuits, detected by contamination, pressure behaviour or loss of charge
  • External leakage at connections caused by vibration, thermal cycling or piping loads produces visible fluid loss or refrigerant alarms
  • Freezing, liquid hammer or operation outside the approved pressure and temperature envelope can permanently damage the plate pack
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine and industrial refrigeration, CO2 refrigeration systems, chillers, heat pumps, cold stores, refrigerated cargo installations and other approved high-pressure heat-transfer duties.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. AXP10-120P
AXP10-120P
Model number
AXP10-120P
Plate count (min)
10 plates
Plate count (max)
150 plates
Max flow rate
24.5 m3/h
Design pressure
48 bar
Application
fusion-bonded all-stainless, marine corrosive duty
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
94 plates
Effective flow rate at duty point
24.5 m3/h
Configuration
120P configuration
Common Failures & Inspection Points
  • Fouling, oil films or contamination on the fluid side reduce heat transfer and can cause abnormal approach temperatures
  • Restricted strainers, poor refrigerant distribution or insufficient liquid flow causes unstable temperatures and reduced capacity
  • Fatigue, corrosion or damage to the bonded plate pack can create internal leakage between circuits, detected by contamination, pressure behaviour or loss of charge
  • External leakage at connections caused by vibration, thermal cycling or piping loads produces visible fluid loss or refrigerant alarms
  • Freezing, liquid hammer or operation outside the approved pressure and temperature envelope can permanently damage the plate pack
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine and industrial refrigeration, CO2 refrigeration systems, chillers, heat pumps, cold stores, refrigerated cargo installations and other approved high-pressure heat-transfer duties.
Manufacturer Datasheet
Datasheet
AXP10-150P
Model number
AXP10-150P
Plate count (min)
10 plates
Plate count (max)
150 plates
Max flow rate
29.8 m3/h
Design pressure
48 bar
Application
fusion-bonded all-stainless, marine corrosive duty
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
115 plates
Effective flow rate at duty point
29.8 m3/h
Configuration
150P configuration
Common Failures & Inspection Points
  • Fouling, oil films or contamination on the fluid side reduce heat transfer and can cause abnormal approach temperatures
  • Restricted strainers, poor refrigerant distribution or insufficient liquid flow causes unstable temperatures and reduced capacity
  • Fatigue, corrosion or damage to the bonded plate pack can create internal leakage between circuits, detected by contamination, pressure behaviour or loss of charge
  • External leakage at connections caused by vibration, thermal cycling or piping loads produces visible fluid loss or refrigerant alarms
  • Freezing, liquid hammer or operation outside the approved pressure and temperature envelope can permanently damage the plate pack
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine and industrial refrigeration, CO2 refrigeration systems, chillers, heat pumps, cold stores, refrigerated cargo installations and other approved high-pressure heat-transfer duties.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. AXP10-180P
AXP10-180P
Model number
AXP10-180P
Plate count (min)
10 plates
Plate count (max)
150 plates
Max flow rate
33.2 m3/h
Design pressure
48 bar
Application
fusion-bonded all-stainless, marine corrosive duty
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
136 plates
Effective flow rate at duty point
33.2 m3/h
Configuration
180P configuration
Common Failures & Inspection Points
  • Fouling, oil films or contamination on the fluid side reduce heat transfer and can cause abnormal approach temperatures
  • Restricted strainers, poor refrigerant distribution or insufficient liquid flow causes unstable temperatures and reduced capacity
  • Fatigue, corrosion or damage to the bonded plate pack can create internal leakage between circuits, detected by contamination, pressure behaviour or loss of charge
  • External leakage at connections caused by vibration, thermal cycling or piping loads produces visible fluid loss or refrigerant alarms
  • Freezing, liquid hammer or operation outside the approved pressure and temperature envelope can permanently damage the plate pack
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine and industrial refrigeration, CO2 refrigeration systems, chillers, heat pumps, cold stores, refrigerated cargo installations and other approved high-pressure heat-transfer duties.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. AXP10-MAX
AXP10-MAX
Model number
AXP10-MAX
Plate count (min)
10 plates
Plate count (max)
150 plates
Max flow rate
35.0 m3/h
Design pressure
48 bar
Application
fusion-bonded all-stainless, marine corrosive duty
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
150 plates
Effective flow rate at duty point
35.0 m3/h
Configuration
MAX configuration
Common Failures & Inspection Points
  • Fouling, oil films or contamination on the fluid side reduce heat transfer and can cause abnormal approach temperatures
  • Restricted strainers, poor refrigerant distribution or insufficient liquid flow causes unstable temperatures and reduced capacity
  • Fatigue, corrosion or damage to the bonded plate pack can create internal leakage between circuits, detected by contamination, pressure behaviour or loss of charge
  • External leakage at connections caused by vibration, thermal cycling or piping loads produces visible fluid loss or refrigerant alarms
  • Freezing, liquid hammer or operation outside the approved pressure and temperature envelope can permanently damage the plate pack
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine and industrial refrigeration, CO2 refrigeration systems, chillers, heat pumps, cold stores, refrigerated cargo installations and other approved high-pressure heat-transfer duties.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. AXP14
AXP14
Model number
AXP14
Plate count (min)
10 plates
Plate count (max)
150 plates
Max flow rate
45.0 m3/h
Design pressure
48 bar
Application
fusion-bonded all-stainless
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Common Failures & Inspection Points
  • Fouling, oil films or contamination on the fluid side reduce heat transfer and can cause abnormal approach temperatures
  • Restricted strainers, poor refrigerant distribution or insufficient liquid flow causes unstable temperatures and reduced capacity
  • Fatigue, corrosion or damage to the bonded plate pack can create internal leakage between circuits, detected by contamination, pressure behaviour or loss of charge
  • External leakage at connections caused by vibration, thermal cycling or piping loads produces visible fluid loss or refrigerant alarms
  • Freezing, liquid hammer or operation outside the approved pressure and temperature envelope can permanently damage the plate pack
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine and industrial refrigeration, CO2 refrigeration systems, chillers, heat pumps, cold stores, refrigerated cargo installations and other approved high-pressure heat-transfer duties.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. AXP14-30P
AXP14-30P
Model number
AXP14-30P
Plate count (min)
10 plates
Plate count (max)
150 plates
Max flow rate
9.0 m3/h
Design pressure
48 bar
Application
fusion-bonded all-stainless
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
31 plates
Effective flow rate at duty point
9.0 m3/h
Configuration
30P configuration
Common Failures & Inspection Points
  • Fouling, oil films or contamination on the fluid side reduce heat transfer and can cause abnormal approach temperatures
  • Restricted strainers, poor refrigerant distribution or insufficient liquid flow causes unstable temperatures and reduced capacity
  • Fatigue, corrosion or damage to the bonded plate pack can create internal leakage between circuits, detected by contamination, pressure behaviour or loss of charge
  • External leakage at connections caused by vibration, thermal cycling or piping loads produces visible fluid loss or refrigerant alarms
  • Freezing, liquid hammer or operation outside the approved pressure and temperature envelope can permanently damage the plate pack
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine and industrial refrigeration, CO2 refrigeration systems, chillers, heat pumps, cold stores, refrigerated cargo installations and other approved high-pressure heat-transfer duties.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. AXP14-60P
AXP14-60P
Model number
AXP14-60P
Plate count (min)
10 plates
Plate count (max)
150 plates
Max flow rate
17.1 m3/h
Design pressure
48 bar
Application
fusion-bonded all-stainless
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
52 plates
Effective flow rate at duty point
17.1 m3/h
Configuration
60P configuration
Common Failures & Inspection Points
  • Fouling, oil films or contamination on the fluid side reduce heat transfer and can cause abnormal approach temperatures
  • Restricted strainers, poor refrigerant distribution or insufficient liquid flow causes unstable temperatures and reduced capacity
  • Fatigue, corrosion or damage to the bonded plate pack can create internal leakage between circuits, detected by contamination, pressure behaviour or loss of charge
  • External leakage at connections caused by vibration, thermal cycling or piping loads produces visible fluid loss or refrigerant alarms
  • Freezing, liquid hammer or operation outside the approved pressure and temperature envelope can permanently damage the plate pack
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine and industrial refrigeration, CO2 refrigeration systems, chillers, heat pumps, cold stores, refrigerated cargo installations and other approved high-pressure heat-transfer duties.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. AXP14-90P
AXP14-90P
Model number
AXP14-90P
Plate count (min)
10 plates
Plate count (max)
150 plates
Max flow rate
24.8 m3/h
Design pressure
48 bar
Application
fusion-bonded all-stainless
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
73 plates
Effective flow rate at duty point
24.8 m3/h
Configuration
90P configuration
Common Failures & Inspection Points
  • Fouling, oil films or contamination on the fluid side reduce heat transfer and can cause abnormal approach temperatures
  • Restricted strainers, poor refrigerant distribution or insufficient liquid flow causes unstable temperatures and reduced capacity
  • Fatigue, corrosion or damage to the bonded plate pack can create internal leakage between circuits, detected by contamination, pressure behaviour or loss of charge
  • External leakage at connections caused by vibration, thermal cycling or piping loads produces visible fluid loss or refrigerant alarms
  • Freezing, liquid hammer or operation outside the approved pressure and temperature envelope can permanently damage the plate pack
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine and industrial refrigeration, CO2 refrigeration systems, chillers, heat pumps, cold stores, refrigerated cargo installations and other approved high-pressure heat-transfer duties.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. AXP14-120P
AXP14-120P
Model number
AXP14-120P
Plate count (min)
10 plates
Plate count (max)
150 plates
Max flow rate
31.5 m3/h
Design pressure
48 bar
Application
fusion-bonded all-stainless
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
94 plates
Effective flow rate at duty point
31.5 m3/h
Configuration
120P configuration
Common Failures & Inspection Points
  • Fouling, oil films or contamination on the fluid side reduce heat transfer and can cause abnormal approach temperatures
  • Restricted strainers, poor refrigerant distribution or insufficient liquid flow causes unstable temperatures and reduced capacity
  • Fatigue, corrosion or damage to the bonded plate pack can create internal leakage between circuits, detected by contamination, pressure behaviour or loss of charge
  • External leakage at connections caused by vibration, thermal cycling or piping loads produces visible fluid loss or refrigerant alarms
  • Freezing, liquid hammer or operation outside the approved pressure and temperature envelope can permanently damage the plate pack
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine and industrial refrigeration, CO2 refrigeration systems, chillers, heat pumps, cold stores, refrigerated cargo installations and other approved high-pressure heat-transfer duties.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. AXP14-150P
AXP14-150P
Model number
AXP14-150P
Plate count (min)
10 plates
Plate count (max)
150 plates
Max flow rate
38.2 m3/h
Design pressure
48 bar
Application
fusion-bonded all-stainless
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
115 plates
Effective flow rate at duty point
38.2 m3/h
Configuration
150P configuration
Common Failures & Inspection Points
  • Fouling, oil films or contamination on the fluid side reduce heat transfer and can cause abnormal approach temperatures
  • Restricted strainers, poor refrigerant distribution or insufficient liquid flow causes unstable temperatures and reduced capacity
  • Fatigue, corrosion or damage to the bonded plate pack can create internal leakage between circuits, detected by contamination, pressure behaviour or loss of charge
  • External leakage at connections caused by vibration, thermal cycling or piping loads produces visible fluid loss or refrigerant alarms
  • Freezing, liquid hammer or operation outside the approved pressure and temperature envelope can permanently damage the plate pack
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine and industrial refrigeration, CO2 refrigeration systems, chillers, heat pumps, cold stores, refrigerated cargo installations and other approved high-pressure heat-transfer duties.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. AXP14-180P
AXP14-180P
Model number
AXP14-180P
Plate count (min)
10 plates
Plate count (max)
150 plates
Max flow rate
42.8 m3/h
Design pressure
48 bar
Application
fusion-bonded all-stainless
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
136 plates
Effective flow rate at duty point
42.8 m3/h
Configuration
180P configuration
Common Failures & Inspection Points
  • Fouling, oil films or contamination on the fluid side reduce heat transfer and can cause abnormal approach temperatures
  • Restricted strainers, poor refrigerant distribution or insufficient liquid flow causes unstable temperatures and reduced capacity
  • Fatigue, corrosion or damage to the bonded plate pack can create internal leakage between circuits, detected by contamination, pressure behaviour or loss of charge
  • External leakage at connections caused by vibration, thermal cycling or piping loads produces visible fluid loss or refrigerant alarms
  • Freezing, liquid hammer or operation outside the approved pressure and temperature envelope can permanently damage the plate pack
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine and industrial refrigeration, CO2 refrigeration systems, chillers, heat pumps, cold stores, refrigerated cargo installations and other approved high-pressure heat-transfer duties.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. AXP14-MAX
AXP14-MAX
Model number
AXP14-MAX
Plate count (min)
10 plates
Plate count (max)
150 plates
Max flow rate
45.0 m3/h
Design pressure
48 bar
Application
fusion-bonded all-stainless
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
150 plates
Effective flow rate at duty point
45.0 m3/h
Configuration
MAX configuration
Common Failures & Inspection Points
  • Fouling, oil films or contamination on the fluid side reduce heat transfer and can cause abnormal approach temperatures
  • Restricted strainers, poor refrigerant distribution or insufficient liquid flow causes unstable temperatures and reduced capacity
  • Fatigue, corrosion or damage to the bonded plate pack can create internal leakage between circuits, detected by contamination, pressure behaviour or loss of charge
  • External leakage at connections caused by vibration, thermal cycling or piping loads produces visible fluid loss or refrigerant alarms
  • Freezing, liquid hammer or operation outside the approved pressure and temperature envelope can permanently damage the plate pack
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine and industrial refrigeration, CO2 refrigeration systems, chillers, heat pumps, cold stores, refrigerated cargo installations and other approved high-pressure heat-transfer duties.
Manufacturer Datasheet
Datasheet
AXP22
Model number
AXP22
Plate count (min)
16 plates
Plate count (max)
200 plates
Max flow rate
85.0 m3/h
Design pressure
48 bar
Application
fusion-bonded all-stainless
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Common Failures & Inspection Points
  • Fouling, oil films or contamination on the fluid side reduce heat transfer and can cause abnormal approach temperatures
  • Restricted strainers, poor refrigerant distribution or insufficient liquid flow causes unstable temperatures and reduced capacity
  • Fatigue, corrosion or damage to the bonded plate pack can create internal leakage between circuits, detected by contamination, pressure behaviour or loss of charge
  • External leakage at connections caused by vibration, thermal cycling or piping loads produces visible fluid loss or refrigerant alarms
  • Freezing, liquid hammer or operation outside the approved pressure and temperature envelope can permanently damage the plate pack
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine and industrial refrigeration, CO2 refrigeration systems, chillers, heat pumps, cold stores, refrigerated cargo installations and other approved high-pressure heat-transfer duties.
Manufacturer Datasheet
Datasheet
AXP22-30P
Model number
AXP22-30P
Plate count (min)
16 plates
Plate count (max)
200 plates
Max flow rate
17.0 m3/h
Design pressure
48 bar
Application
fusion-bonded all-stainless
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
43 plates
Effective flow rate at duty point
17.0 m3/h
Configuration
30P configuration
Common Failures & Inspection Points
  • Fouling, oil films or contamination on the fluid side reduce heat transfer and can cause abnormal approach temperatures
  • Restricted strainers, poor refrigerant distribution or insufficient liquid flow causes unstable temperatures and reduced capacity
  • Fatigue, corrosion or damage to the bonded plate pack can create internal leakage between circuits, detected by contamination, pressure behaviour or loss of charge
  • External leakage at connections caused by vibration, thermal cycling or piping loads produces visible fluid loss or refrigerant alarms
  • Freezing, liquid hammer or operation outside the approved pressure and temperature envelope can permanently damage the plate pack
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine and industrial refrigeration, CO2 refrigeration systems, chillers, heat pumps, cold stores, refrigerated cargo installations and other approved high-pressure heat-transfer duties.
Manufacturer Datasheet
Datasheet
AXP22-60P
Model number
AXP22-60P
Plate count (min)
16 plates
Plate count (max)
200 plates
Max flow rate
32.3 m3/h
Design pressure
48 bar
Application
fusion-bonded all-stainless
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
71 plates
Effective flow rate at duty point
32.3 m3/h
Configuration
60P configuration
Common Failures & Inspection Points
  • Fouling, oil films or contamination on the fluid side reduce heat transfer and can cause abnormal approach temperatures
  • Restricted strainers, poor refrigerant distribution or insufficient liquid flow causes unstable temperatures and reduced capacity
  • Fatigue, corrosion or damage to the bonded plate pack can create internal leakage between circuits, detected by contamination, pressure behaviour or loss of charge
  • External leakage at connections caused by vibration, thermal cycling or piping loads produces visible fluid loss or refrigerant alarms
  • Freezing, liquid hammer or operation outside the approved pressure and temperature envelope can permanently damage the plate pack
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine and industrial refrigeration, CO2 refrigeration systems, chillers, heat pumps, cold stores, refrigerated cargo installations and other approved high-pressure heat-transfer duties.
Manufacturer Datasheet
Datasheet
AXP22-90P
Model number
AXP22-90P
Plate count (min)
16 plates
Plate count (max)
200 plates
Max flow rate
46.8 m3/h
Design pressure
48 bar
Application
fusion-bonded all-stainless
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
98 plates
Effective flow rate at duty point
46.8 m3/h
Configuration
90P configuration
Common Failures & Inspection Points
  • Fouling, oil films or contamination on the fluid side reduce heat transfer and can cause abnormal approach temperatures
  • Restricted strainers, poor refrigerant distribution or insufficient liquid flow causes unstable temperatures and reduced capacity
  • Fatigue, corrosion or damage to the bonded plate pack can create internal leakage between circuits, detected by contamination, pressure behaviour or loss of charge
  • External leakage at connections caused by vibration, thermal cycling or piping loads produces visible fluid loss or refrigerant alarms
  • Freezing, liquid hammer or operation outside the approved pressure and temperature envelope can permanently damage the plate pack
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine and industrial refrigeration, CO2 refrigeration systems, chillers, heat pumps, cold stores, refrigerated cargo installations and other approved high-pressure heat-transfer duties.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. AXP22-120P
AXP22-120P
Model number
AXP22-120P
Plate count (min)
16 plates
Plate count (max)
200 plates
Max flow rate
59.5 m3/h
Design pressure
48 bar
Application
fusion-bonded all-stainless
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
126 plates
Effective flow rate at duty point
59.5 m3/h
Configuration
120P configuration
Common Failures & Inspection Points
  • Fouling, oil films or contamination on the fluid side reduce heat transfer and can cause abnormal approach temperatures
  • Restricted strainers, poor refrigerant distribution or insufficient liquid flow causes unstable temperatures and reduced capacity
  • Fatigue, corrosion or damage to the bonded plate pack can create internal leakage between circuits, detected by contamination, pressure behaviour or loss of charge
  • External leakage at connections caused by vibration, thermal cycling or piping loads produces visible fluid loss or refrigerant alarms
  • Freezing, liquid hammer or operation outside the approved pressure and temperature envelope can permanently damage the plate pack
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine and industrial refrigeration, CO2 refrigeration systems, chillers, heat pumps, cold stores, refrigerated cargo installations and other approved high-pressure heat-transfer duties.
Manufacturer Datasheet
Datasheet
AXP22-150P
Model number
AXP22-150P
Plate count (min)
16 plates
Plate count (max)
200 plates
Max flow rate
72.2 m3/h
Design pressure
48 bar
Application
fusion-bonded all-stainless
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
154 plates
Effective flow rate at duty point
72.2 m3/h
Configuration
150P configuration
Common Failures & Inspection Points
  • Fouling, oil films or contamination on the fluid side reduce heat transfer and can cause abnormal approach temperatures
  • Restricted strainers, poor refrigerant distribution or insufficient liquid flow causes unstable temperatures and reduced capacity
  • Fatigue, corrosion or damage to the bonded plate pack can create internal leakage between circuits, detected by contamination, pressure behaviour or loss of charge
  • External leakage at connections caused by vibration, thermal cycling or piping loads produces visible fluid loss or refrigerant alarms
  • Freezing, liquid hammer or operation outside the approved pressure and temperature envelope can permanently damage the plate pack
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine and industrial refrigeration, CO2 refrigeration systems, chillers, heat pumps, cold stores, refrigerated cargo installations and other approved high-pressure heat-transfer duties.
Manufacturer Datasheet
Datasheet
AXP22-180P
Model number
AXP22-180P
Plate count (min)
16 plates
Plate count (max)
200 plates
Max flow rate
80.8 m3/h
Design pressure
48 bar
Application
fusion-bonded all-stainless
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
181 plates
Effective flow rate at duty point
80.8 m3/h
Configuration
180P configuration
Common Failures & Inspection Points
  • Fouling, oil films or contamination on the fluid side reduce heat transfer and can cause abnormal approach temperatures
  • Restricted strainers, poor refrigerant distribution or insufficient liquid flow causes unstable temperatures and reduced capacity
  • Fatigue, corrosion or damage to the bonded plate pack can create internal leakage between circuits, detected by contamination, pressure behaviour or loss of charge
  • External leakage at connections caused by vibration, thermal cycling or piping loads produces visible fluid loss or refrigerant alarms
  • Freezing, liquid hammer or operation outside the approved pressure and temperature envelope can permanently damage the plate pack
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine and industrial refrigeration, CO2 refrigeration systems, chillers, heat pumps, cold stores, refrigerated cargo installations and other approved high-pressure heat-transfer duties.
Manufacturer Datasheet
Datasheet
AXP22-MAX
Model number
AXP22-MAX
Plate count (min)
16 plates
Plate count (max)
200 plates
Max flow rate
85.0 m3/h
Design pressure
48 bar
Application
fusion-bonded all-stainless
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
200 plates
Effective flow rate at duty point
85.0 m3/h
Configuration
MAX configuration
Common Failures & Inspection Points
  • Fouling, oil films or contamination on the fluid side reduce heat transfer and can cause abnormal approach temperatures
  • Restricted strainers, poor refrigerant distribution or insufficient liquid flow causes unstable temperatures and reduced capacity
  • Fatigue, corrosion or damage to the bonded plate pack can create internal leakage between circuits, detected by contamination, pressure behaviour or loss of charge
  • External leakage at connections caused by vibration, thermal cycling or piping loads produces visible fluid loss or refrigerant alarms
  • Freezing, liquid hammer or operation outside the approved pressure and temperature envelope can permanently damage the plate pack
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine and industrial refrigeration, CO2 refrigeration systems, chillers, heat pumps, cold stores, refrigerated cargo installations and other approved high-pressure heat-transfer duties.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. AXP27
AXP27
Model number
AXP27
Plate count (min)
16 plates
Plate count (max)
200 plates
Max flow rate
110.0 m3/h
Design pressure
48 bar
Application
fusion-bonded all-stainless
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Common Failures & Inspection Points
  • Fouling, oil films or contamination on the fluid side reduce heat transfer and can cause abnormal approach temperatures
  • Restricted strainers, poor refrigerant distribution or insufficient liquid flow causes unstable temperatures and reduced capacity
  • Fatigue, corrosion or damage to the bonded plate pack can create internal leakage between circuits, detected by contamination, pressure behaviour or loss of charge
  • External leakage at connections caused by vibration, thermal cycling or piping loads produces visible fluid loss or refrigerant alarms
  • Freezing, liquid hammer or operation outside the approved pressure and temperature envelope can permanently damage the plate pack
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine and industrial refrigeration, CO2 refrigeration systems, chillers, heat pumps, cold stores, refrigerated cargo installations and other approved high-pressure heat-transfer duties.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. AXP27-30P
AXP27-30P
Model number
AXP27-30P
Plate count (min)
16 plates
Plate count (max)
200 plates
Max flow rate
22.0 m3/h
Design pressure
48 bar
Application
fusion-bonded all-stainless
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
43 plates
Effective flow rate at duty point
22.0 m3/h
Configuration
30P configuration
Common Failures & Inspection Points
  • Fouling, oil films or contamination on the fluid side reduce heat transfer and can cause abnormal approach temperatures
  • Restricted strainers, poor refrigerant distribution or insufficient liquid flow causes unstable temperatures and reduced capacity
  • Fatigue, corrosion or damage to the bonded plate pack can create internal leakage between circuits, detected by contamination, pressure behaviour or loss of charge
  • External leakage at connections caused by vibration, thermal cycling or piping loads produces visible fluid loss or refrigerant alarms
  • Freezing, liquid hammer or operation outside the approved pressure and temperature envelope can permanently damage the plate pack
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine and industrial refrigeration, CO2 refrigeration systems, chillers, heat pumps, cold stores, refrigerated cargo installations and other approved high-pressure heat-transfer duties.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. AXP27-60P
AXP27-60P
Model number
AXP27-60P
Plate count (min)
16 plates
Plate count (max)
200 plates
Max flow rate
41.8 m3/h
Design pressure
48 bar
Application
fusion-bonded all-stainless
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
71 plates
Effective flow rate at duty point
41.8 m3/h
Configuration
60P configuration
Common Failures & Inspection Points
  • Fouling, oil films or contamination on the fluid side reduce heat transfer and can cause abnormal approach temperatures
  • Restricted strainers, poor refrigerant distribution or insufficient liquid flow causes unstable temperatures and reduced capacity
  • Fatigue, corrosion or damage to the bonded plate pack can create internal leakage between circuits, detected by contamination, pressure behaviour or loss of charge
  • External leakage at connections caused by vibration, thermal cycling or piping loads produces visible fluid loss or refrigerant alarms
  • Freezing, liquid hammer or operation outside the approved pressure and temperature envelope can permanently damage the plate pack
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine and industrial refrigeration, CO2 refrigeration systems, chillers, heat pumps, cold stores, refrigerated cargo installations and other approved high-pressure heat-transfer duties.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. AXP27-90P
AXP27-90P
Model number
AXP27-90P
Plate count (min)
16 plates
Plate count (max)
200 plates
Max flow rate
60.5 m3/h
Design pressure
48 bar
Application
fusion-bonded all-stainless
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
98 plates
Effective flow rate at duty point
60.5 m3/h
Configuration
90P configuration
Common Failures & Inspection Points
  • Fouling, oil films or contamination on the fluid side reduce heat transfer and can cause abnormal approach temperatures
  • Restricted strainers, poor refrigerant distribution or insufficient liquid flow causes unstable temperatures and reduced capacity
  • Fatigue, corrosion or damage to the bonded plate pack can create internal leakage between circuits, detected by contamination, pressure behaviour or loss of charge
  • External leakage at connections caused by vibration, thermal cycling or piping loads produces visible fluid loss or refrigerant alarms
  • Freezing, liquid hammer or operation outside the approved pressure and temperature envelope can permanently damage the plate pack
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine and industrial refrigeration, CO2 refrigeration systems, chillers, heat pumps, cold stores, refrigerated cargo installations and other approved high-pressure heat-transfer duties.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. AXP27-120P
AXP27-120P
Model number
AXP27-120P
Plate count (min)
16 plates
Plate count (max)
200 plates
Max flow rate
77.0 m3/h
Design pressure
48 bar
Application
fusion-bonded all-stainless
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
126 plates
Effective flow rate at duty point
77.0 m3/h
Configuration
120P configuration
Common Failures & Inspection Points
  • Fouling, oil films or contamination on the fluid side reduce heat transfer and can cause abnormal approach temperatures
  • Restricted strainers, poor refrigerant distribution or insufficient liquid flow causes unstable temperatures and reduced capacity
  • Fatigue, corrosion or damage to the bonded plate pack can create internal leakage between circuits, detected by contamination, pressure behaviour or loss of charge
  • External leakage at connections caused by vibration, thermal cycling or piping loads produces visible fluid loss or refrigerant alarms
  • Freezing, liquid hammer or operation outside the approved pressure and temperature envelope can permanently damage the plate pack
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine and industrial refrigeration, CO2 refrigeration systems, chillers, heat pumps, cold stores, refrigerated cargo installations and other approved high-pressure heat-transfer duties.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. AXP27-150P
AXP27-150P
Model number
AXP27-150P
Plate count (min)
16 plates
Plate count (max)
200 plates
Max flow rate
93.5 m3/h
Design pressure
48 bar
Application
fusion-bonded all-stainless
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
154 plates
Effective flow rate at duty point
93.5 m3/h
Configuration
150P configuration
Common Failures & Inspection Points
  • Fouling, oil films or contamination on the fluid side reduce heat transfer and can cause abnormal approach temperatures
  • Restricted strainers, poor refrigerant distribution or insufficient liquid flow causes unstable temperatures and reduced capacity
  • Fatigue, corrosion or damage to the bonded plate pack can create internal leakage between circuits, detected by contamination, pressure behaviour or loss of charge
  • External leakage at connections caused by vibration, thermal cycling or piping loads produces visible fluid loss or refrigerant alarms
  • Freezing, liquid hammer or operation outside the approved pressure and temperature envelope can permanently damage the plate pack
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine and industrial refrigeration, CO2 refrigeration systems, chillers, heat pumps, cold stores, refrigerated cargo installations and other approved high-pressure heat-transfer duties.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. AXP27-180P
AXP27-180P
Model number
AXP27-180P
Plate count (min)
16 plates
Plate count (max)
200 plates
Max flow rate
104.5 m3/h
Design pressure
48 bar
Application
fusion-bonded all-stainless
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
181 plates
Effective flow rate at duty point
104.5 m3/h
Configuration
180P configuration
Common Failures & Inspection Points
  • Fouling, oil films or contamination on the fluid side reduce heat transfer and can cause abnormal approach temperatures
  • Restricted strainers, poor refrigerant distribution or insufficient liquid flow causes unstable temperatures and reduced capacity
  • Fatigue, corrosion or damage to the bonded plate pack can create internal leakage between circuits, detected by contamination, pressure behaviour or loss of charge
  • External leakage at connections caused by vibration, thermal cycling or piping loads produces visible fluid loss or refrigerant alarms
  • Freezing, liquid hammer or operation outside the approved pressure and temperature envelope can permanently damage the plate pack
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine and industrial refrigeration, CO2 refrigeration systems, chillers, heat pumps, cold stores, refrigerated cargo installations and other approved high-pressure heat-transfer duties.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. AXP27-MAX
AXP27-MAX
Model number
AXP27-MAX
Plate count (min)
16 plates
Plate count (max)
200 plates
Max flow rate
110.0 m3/h
Design pressure
48 bar
Application
fusion-bonded all-stainless
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
200 plates
Effective flow rate at duty point
110.0 m3/h
Configuration
MAX configuration
Common Failures & Inspection Points
  • Fouling, oil films or contamination on the fluid side reduce heat transfer and can cause abnormal approach temperatures
  • Restricted strainers, poor refrigerant distribution or insufficient liquid flow causes unstable temperatures and reduced capacity
  • Fatigue, corrosion or damage to the bonded plate pack can create internal leakage between circuits, detected by contamination, pressure behaviour or loss of charge
  • External leakage at connections caused by vibration, thermal cycling or piping loads produces visible fluid loss or refrigerant alarms
  • Freezing, liquid hammer or operation outside the approved pressure and temperature envelope can permanently damage the plate pack
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine and industrial refrigeration, CO2 refrigeration systems, chillers, heat pumps, cold stores, refrigerated cargo installations and other approved high-pressure heat-transfer duties.
Manufacturer Datasheet
Datasheet
AXP32
Model number
AXP32
Plate count (min)
16 plates
Plate count (max)
250 plates
Max flow rate
140.0 m3/h
Design pressure
48 bar
Application
fusion-bonded all-stainless
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Common Failures & Inspection Points
  • Fouling, oil films or contamination on the fluid side reduce heat transfer and can cause abnormal approach temperatures
  • Restricted strainers, poor refrigerant distribution or insufficient liquid flow causes unstable temperatures and reduced capacity
  • Fatigue, corrosion or damage to the bonded plate pack can create internal leakage between circuits, detected by contamination, pressure behaviour or loss of charge
  • External leakage at connections caused by vibration, thermal cycling or piping loads produces visible fluid loss or refrigerant alarms
  • Freezing, liquid hammer or operation outside the approved pressure and temperature envelope can permanently damage the plate pack
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine and industrial refrigeration, CO2 refrigeration systems, chillers, heat pumps, cold stores, refrigerated cargo installations and other approved high-pressure heat-transfer duties.
Manufacturer Datasheet
Datasheet
AXP32-30P
Model number
AXP32-30P
Plate count (min)
16 plates
Plate count (max)
250 plates
Max flow rate
28.0 m3/h
Design pressure
48 bar
Application
fusion-bonded all-stainless
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
51 plates
Effective flow rate at duty point
28.0 m3/h
Configuration
30P configuration
Common Failures & Inspection Points
  • Fouling, oil films or contamination on the fluid side reduce heat transfer and can cause abnormal approach temperatures
  • Restricted strainers, poor refrigerant distribution or insufficient liquid flow causes unstable temperatures and reduced capacity
  • Fatigue, corrosion or damage to the bonded plate pack can create internal leakage between circuits, detected by contamination, pressure behaviour or loss of charge
  • External leakage at connections caused by vibration, thermal cycling or piping loads produces visible fluid loss or refrigerant alarms
  • Freezing, liquid hammer or operation outside the approved pressure and temperature envelope can permanently damage the plate pack
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine and industrial refrigeration, CO2 refrigeration systems, chillers, heat pumps, cold stores, refrigerated cargo installations and other approved high-pressure heat-transfer duties.
Manufacturer Datasheet
Datasheet
AXP32-60P
Model number
AXP32-60P
Plate count (min)
16 plates
Plate count (max)
250 plates
Max flow rate
53.2 m3/h
Design pressure
48 bar
Application
fusion-bonded all-stainless
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
86 plates
Effective flow rate at duty point
53.2 m3/h
Configuration
60P configuration
Common Failures & Inspection Points
  • Fouling, oil films or contamination on the fluid side reduce heat transfer and can cause abnormal approach temperatures
  • Restricted strainers, poor refrigerant distribution or insufficient liquid flow causes unstable temperatures and reduced capacity
  • Fatigue, corrosion or damage to the bonded plate pack can create internal leakage between circuits, detected by contamination, pressure behaviour or loss of charge
  • External leakage at connections caused by vibration, thermal cycling or piping loads produces visible fluid loss or refrigerant alarms
  • Freezing, liquid hammer or operation outside the approved pressure and temperature envelope can permanently damage the plate pack
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine and industrial refrigeration, CO2 refrigeration systems, chillers, heat pumps, cold stores, refrigerated cargo installations and other approved high-pressure heat-transfer duties.
Manufacturer Datasheet
Datasheet
AXP32-90P
Model number
AXP32-90P
Plate count (min)
16 plates
Plate count (max)
250 plates
Max flow rate
77.0 m3/h
Design pressure
48 bar
Application
fusion-bonded all-stainless
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
121 plates
Effective flow rate at duty point
77.0 m3/h
Configuration
90P configuration
Common Failures & Inspection Points
  • Fouling, oil films or contamination on the fluid side reduce heat transfer and can cause abnormal approach temperatures
  • Restricted strainers, poor refrigerant distribution or insufficient liquid flow causes unstable temperatures and reduced capacity
  • Fatigue, corrosion or damage to the bonded plate pack can create internal leakage between circuits, detected by contamination, pressure behaviour or loss of charge
  • External leakage at connections caused by vibration, thermal cycling or piping loads produces visible fluid loss or refrigerant alarms
  • Freezing, liquid hammer or operation outside the approved pressure and temperature envelope can permanently damage the plate pack
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine and industrial refrigeration, CO2 refrigeration systems, chillers, heat pumps, cold stores, refrigerated cargo installations and other approved high-pressure heat-transfer duties.
Manufacturer Datasheet
Datasheet
AXP32-120P
Model number
AXP32-120P
Plate count (min)
16 plates
Plate count (max)
250 plates
Max flow rate
98.0 m3/h
Design pressure
48 bar
Application
fusion-bonded all-stainless
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
156 plates
Effective flow rate at duty point
98.0 m3/h
Configuration
120P configuration
Common Failures & Inspection Points
  • Fouling, oil films or contamination on the fluid side reduce heat transfer and can cause abnormal approach temperatures
  • Restricted strainers, poor refrigerant distribution or insufficient liquid flow causes unstable temperatures and reduced capacity
  • Fatigue, corrosion or damage to the bonded plate pack can create internal leakage between circuits, detected by contamination, pressure behaviour or loss of charge
  • External leakage at connections caused by vibration, thermal cycling or piping loads produces visible fluid loss or refrigerant alarms
  • Freezing, liquid hammer or operation outside the approved pressure and temperature envelope can permanently damage the plate pack
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine and industrial refrigeration, CO2 refrigeration systems, chillers, heat pumps, cold stores, refrigerated cargo installations and other approved high-pressure heat-transfer duties.
Manufacturer Datasheet
Datasheet
AXP32-150P
Model number
AXP32-150P
Plate count (min)
16 plates
Plate count (max)
250 plates
Max flow rate
119.0 m3/h
Design pressure
48 bar
Application
fusion-bonded all-stainless
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
191 plates
Effective flow rate at duty point
119.0 m3/h
Configuration
150P configuration
Common Failures & Inspection Points
  • Fouling, oil films or contamination on the fluid side reduce heat transfer and can cause abnormal approach temperatures
  • Restricted strainers, poor refrigerant distribution or insufficient liquid flow causes unstable temperatures and reduced capacity
  • Fatigue, corrosion or damage to the bonded plate pack can create internal leakage between circuits, detected by contamination, pressure behaviour or loss of charge
  • External leakage at connections caused by vibration, thermal cycling or piping loads produces visible fluid loss or refrigerant alarms
  • Freezing, liquid hammer or operation outside the approved pressure and temperature envelope can permanently damage the plate pack
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine and industrial refrigeration, CO2 refrigeration systems, chillers, heat pumps, cold stores, refrigerated cargo installations and other approved high-pressure heat-transfer duties.
Manufacturer Datasheet
Datasheet
AXP32-180P
Model number
AXP32-180P
Plate count (min)
16 plates
Plate count (max)
250 plates
Max flow rate
133.0 m3/h
Design pressure
48 bar
Application
fusion-bonded all-stainless
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
226 plates
Effective flow rate at duty point
133.0 m3/h
Configuration
180P configuration
Common Failures & Inspection Points
  • Fouling, oil films or contamination on the fluid side reduce heat transfer and can cause abnormal approach temperatures
  • Restricted strainers, poor refrigerant distribution or insufficient liquid flow causes unstable temperatures and reduced capacity
  • Fatigue, corrosion or damage to the bonded plate pack can create internal leakage between circuits, detected by contamination, pressure behaviour or loss of charge
  • External leakage at connections caused by vibration, thermal cycling or piping loads produces visible fluid loss or refrigerant alarms
  • Freezing, liquid hammer or operation outside the approved pressure and temperature envelope can permanently damage the plate pack
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine and industrial refrigeration, CO2 refrigeration systems, chillers, heat pumps, cold stores, refrigerated cargo installations and other approved high-pressure heat-transfer duties.
Manufacturer Datasheet
Datasheet
AXP32-MAX
Model number
AXP32-MAX
Plate count (min)
16 plates
Plate count (max)
250 plates
Max flow rate
140.0 m3/h
Design pressure
48 bar
Application
fusion-bonded all-stainless
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
250 plates
Effective flow rate at duty point
140.0 m3/h
Configuration
MAX configuration
Common Failures & Inspection Points
  • Fouling, oil films or contamination on the fluid side reduce heat transfer and can cause abnormal approach temperatures
  • Restricted strainers, poor refrigerant distribution or insufficient liquid flow causes unstable temperatures and reduced capacity
  • Fatigue, corrosion or damage to the bonded plate pack can create internal leakage between circuits, detected by contamination, pressure behaviour or loss of charge
  • External leakage at connections caused by vibration, thermal cycling or piping loads produces visible fluid loss or refrigerant alarms
  • Freezing, liquid hammer or operation outside the approved pressure and temperature envelope can permanently damage the plate pack
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine and industrial refrigeration, CO2 refrigeration systems, chillers, heat pumps, cold stores, refrigerated cargo installations and other approved high-pressure heat-transfer duties.
Manufacturer Datasheet
Datasheet
AXP52
Model number
AXP52
Plate count (min)
20 plates
Plate count (max)
300 plates
Max flow rate
230.0 m3/h
Design pressure
140 bar
Application
fusion-bonded XTRM, ultra-high pressure
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Common Failures & Inspection Points
  • Fouling, oil films or contamination on the fluid side reduce heat transfer and can cause abnormal approach temperatures
  • Restricted strainers, poor refrigerant distribution or insufficient liquid flow causes unstable temperatures and reduced capacity
  • Fatigue, corrosion or damage to the bonded plate pack can create internal leakage between circuits, detected by contamination, pressure behaviour or loss of charge
  • External leakage at connections caused by vibration, thermal cycling or piping loads produces visible fluid loss or refrigerant alarms
  • Freezing, liquid hammer or operation outside the approved pressure and temperature envelope can permanently damage the plate pack
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine and industrial refrigeration, CO2 refrigeration systems, chillers, heat pumps, cold stores, refrigerated cargo installations and other approved high-pressure heat-transfer duties.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. AXP52-30P
AXP52-30P
Model number
AXP52-30P
Plate count (min)
20 plates
Plate count (max)
300 plates
Max flow rate
46.0 m3/h
Design pressure
140 bar
Application
fusion-bonded XTRM, ultra-high pressure
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
62 plates
Effective flow rate at duty point
46.0 m3/h
Configuration
30P configuration
Common Failures & Inspection Points
  • Fouling, oil films or contamination on the fluid side reduce heat transfer and can cause abnormal approach temperatures
  • Restricted strainers, poor refrigerant distribution or insufficient liquid flow causes unstable temperatures and reduced capacity
  • Fatigue, corrosion or damage to the bonded plate pack can create internal leakage between circuits, detected by contamination, pressure behaviour or loss of charge
  • External leakage at connections caused by vibration, thermal cycling or piping loads produces visible fluid loss or refrigerant alarms
  • Freezing, liquid hammer or operation outside the approved pressure and temperature envelope can permanently damage the plate pack
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine and industrial refrigeration, CO2 refrigeration systems, chillers, heat pumps, cold stores, refrigerated cargo installations and other approved high-pressure heat-transfer duties.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. AXP52-60P
AXP52-60P
Model number
AXP52-60P
Plate count (min)
20 plates
Plate count (max)
300 plates
Max flow rate
87.4 m3/h
Design pressure
140 bar
Application
fusion-bonded XTRM, ultra-high pressure
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
104 plates
Effective flow rate at duty point
87.4 m3/h
Configuration
60P configuration
Common Failures & Inspection Points
  • Fouling, oil films or contamination on the fluid side reduce heat transfer and can cause abnormal approach temperatures
  • Restricted strainers, poor refrigerant distribution or insufficient liquid flow causes unstable temperatures and reduced capacity
  • Fatigue, corrosion or damage to the bonded plate pack can create internal leakage between circuits, detected by contamination, pressure behaviour or loss of charge
  • External leakage at connections caused by vibration, thermal cycling or piping loads produces visible fluid loss or refrigerant alarms
  • Freezing, liquid hammer or operation outside the approved pressure and temperature envelope can permanently damage the plate pack
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine and industrial refrigeration, CO2 refrigeration systems, chillers, heat pumps, cold stores, refrigerated cargo installations and other approved high-pressure heat-transfer duties.
Manufacturer Datasheet
Datasheet
AXP52-90P
Model number
AXP52-90P
Plate count (min)
20 plates
Plate count (max)
300 plates
Max flow rate
126.5 m3/h
Design pressure
140 bar
Application
fusion-bonded XTRM, ultra-high pressure
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
146 plates
Effective flow rate at duty point
126.5 m3/h
Configuration
90P configuration
Common Failures & Inspection Points
  • Fouling, oil films or contamination on the fluid side reduce heat transfer and can cause abnormal approach temperatures
  • Restricted strainers, poor refrigerant distribution or insufficient liquid flow causes unstable temperatures and reduced capacity
  • Fatigue, corrosion or damage to the bonded plate pack can create internal leakage between circuits, detected by contamination, pressure behaviour or loss of charge
  • External leakage at connections caused by vibration, thermal cycling or piping loads produces visible fluid loss or refrigerant alarms
  • Freezing, liquid hammer or operation outside the approved pressure and temperature envelope can permanently damage the plate pack
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine and industrial refrigeration, CO2 refrigeration systems, chillers, heat pumps, cold stores, refrigerated cargo installations and other approved high-pressure heat-transfer duties.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. AXP52-120P
AXP52-120P
Model number
AXP52-120P
Plate count (min)
20 plates
Plate count (max)
300 plates
Max flow rate
161.0 m3/h
Design pressure
140 bar
Application
fusion-bonded XTRM, ultra-high pressure
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
188 plates
Effective flow rate at duty point
161.0 m3/h
Configuration
120P configuration
Common Failures & Inspection Points
  • Fouling, oil films or contamination on the fluid side reduce heat transfer and can cause abnormal approach temperatures
  • Restricted strainers, poor refrigerant distribution or insufficient liquid flow causes unstable temperatures and reduced capacity
  • Fatigue, corrosion or damage to the bonded plate pack can create internal leakage between circuits, detected by contamination, pressure behaviour or loss of charge
  • External leakage at connections caused by vibration, thermal cycling or piping loads produces visible fluid loss or refrigerant alarms
  • Freezing, liquid hammer or operation outside the approved pressure and temperature envelope can permanently damage the plate pack
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine and industrial refrigeration, CO2 refrigeration systems, chillers, heat pumps, cold stores, refrigerated cargo installations and other approved high-pressure heat-transfer duties.
Manufacturer Datasheet
Datasheet
AXP52-150P
Model number
AXP52-150P
Plate count (min)
20 plates
Plate count (max)
300 plates
Max flow rate
195.5 m3/h
Design pressure
140 bar
Application
fusion-bonded XTRM, ultra-high pressure
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
230 plates
Effective flow rate at duty point
195.5 m3/h
Configuration
150P configuration
Common Failures & Inspection Points
  • Fouling, oil films or contamination on the fluid side reduce heat transfer and can cause abnormal approach temperatures
  • Restricted strainers, poor refrigerant distribution or insufficient liquid flow causes unstable temperatures and reduced capacity
  • Fatigue, corrosion or damage to the bonded plate pack can create internal leakage between circuits, detected by contamination, pressure behaviour or loss of charge
  • External leakage at connections caused by vibration, thermal cycling or piping loads produces visible fluid loss or refrigerant alarms
  • Freezing, liquid hammer or operation outside the approved pressure and temperature envelope can permanently damage the plate pack
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine and industrial refrigeration, CO2 refrigeration systems, chillers, heat pumps, cold stores, refrigerated cargo installations and other approved high-pressure heat-transfer duties.
Manufacturer Datasheet
Datasheet
AXP52-180P
Model number
AXP52-180P
Plate count (min)
20 plates
Plate count (max)
300 plates
Max flow rate
218.5 m3/h
Design pressure
140 bar
Application
fusion-bonded XTRM, ultra-high pressure
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
272 plates
Effective flow rate at duty point
218.5 m3/h
Configuration
180P configuration
Common Failures & Inspection Points
  • Fouling, oil films or contamination on the fluid side reduce heat transfer and can cause abnormal approach temperatures
  • Restricted strainers, poor refrigerant distribution or insufficient liquid flow causes unstable temperatures and reduced capacity
  • Fatigue, corrosion or damage to the bonded plate pack can create internal leakage between circuits, detected by contamination, pressure behaviour or loss of charge
  • External leakage at connections caused by vibration, thermal cycling or piping loads produces visible fluid loss or refrigerant alarms
  • Freezing, liquid hammer or operation outside the approved pressure and temperature envelope can permanently damage the plate pack
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine and industrial refrigeration, CO2 refrigeration systems, chillers, heat pumps, cold stores, refrigerated cargo installations and other approved high-pressure heat-transfer duties.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. AXP52-MAX
AXP52-MAX
Model number
AXP52-MAX
Plate count (min)
20 plates
Plate count (max)
300 plates
Max flow rate
230.0 m3/h
Design pressure
140 bar
Application
fusion-bonded XTRM, ultra-high pressure
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
300 plates
Effective flow rate at duty point
230.0 m3/h
Configuration
MAX configuration
Common Failures & Inspection Points
  • Fouling, oil films or contamination on the fluid side reduce heat transfer and can cause abnormal approach temperatures
  • Restricted strainers, poor refrigerant distribution or insufficient liquid flow causes unstable temperatures and reduced capacity
  • Fatigue, corrosion or damage to the bonded plate pack can create internal leakage between circuits, detected by contamination, pressure behaviour or loss of charge
  • External leakage at connections caused by vibration, thermal cycling or piping loads produces visible fluid loss or refrigerant alarms
  • Freezing, liquid hammer or operation outside the approved pressure and temperature envelope can permanently damage the plate pack
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine and industrial refrigeration, CO2 refrigeration systems, chillers, heat pumps, cold stores, refrigerated cargo installations and other approved high-pressure heat-transfer duties.
Manufacturer Datasheet
Datasheet
AlfaNova-14
Model number
AlfaNova-14
Plate count (min)
10 plates
Plate count (max)
150 plates
Max flow rate
40.0 m3/h
Design pressure
30 bar
Application
fusion-bonded all-stainless, hygienic
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Common Failures & Inspection Points
  • Fouling or scaling inside the narrow plate channels reduces heat-transfer performance and increases pressure drop
  • Blocked strainers or restricted upstream piping reduce flow and produce abnormal outlet temperatures
  • Corrosion, erosion or fatigue damage to the bonded plate pack can cause internal cross-contamination between circuits
  • External leakage at connections caused by damaged joints, vibration or piping loads produces visible fluid loss
  • Freezing, thermal shock or operation outside the approved pressure and temperature envelope can damage the plate pack and lead to leakage
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine and industrial heating or cooling with aggressive or high-cleanliness media, natural-refrigerant systems, potable or technical-water duties where approved, and other applications requiring a compact all-stainless-steel exchanger.
Manufacturer Datasheet
Datasheet
AlfaNova-14-30P
Model number
AlfaNova-14-30P
Plate count (min)
10 plates
Plate count (max)
150 plates
Max flow rate
8.0 m3/h
Design pressure
30 bar
Application
fusion-bonded all-stainless, hygienic
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
31 plates
Effective flow rate at duty point
8.0 m3/h
Configuration
30P configuration
Common Failures & Inspection Points
  • Fouling or scaling inside the narrow plate channels reduces heat-transfer performance and increases pressure drop
  • Blocked strainers or restricted upstream piping reduce flow and produce abnormal outlet temperatures
  • Corrosion, erosion or fatigue damage to the bonded plate pack can cause internal cross-contamination between circuits
  • External leakage at connections caused by damaged joints, vibration or piping loads produces visible fluid loss
  • Freezing, thermal shock or operation outside the approved pressure and temperature envelope can damage the plate pack and lead to leakage
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine and industrial heating or cooling with aggressive or high-cleanliness media, natural-refrigerant systems, potable or technical-water duties where approved, and other applications requiring a compact all-stainless-steel exchanger.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. AlfaNova-14-60P
AlfaNova-14-60P
Model number
AlfaNova-14-60P
Plate count (min)
10 plates
Plate count (max)
150 plates
Max flow rate
15.2 m3/h
Design pressure
30 bar
Application
fusion-bonded all-stainless, hygienic
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
52 plates
Effective flow rate at duty point
15.2 m3/h
Configuration
60P configuration
Common Failures & Inspection Points
  • Fouling or scaling inside the narrow plate channels reduces heat-transfer performance and increases pressure drop
  • Blocked strainers or restricted upstream piping reduce flow and produce abnormal outlet temperatures
  • Corrosion, erosion or fatigue damage to the bonded plate pack can cause internal cross-contamination between circuits
  • External leakage at connections caused by damaged joints, vibration or piping loads produces visible fluid loss
  • Freezing, thermal shock or operation outside the approved pressure and temperature envelope can damage the plate pack and lead to leakage
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine and industrial heating or cooling with aggressive or high-cleanliness media, natural-refrigerant systems, potable or technical-water duties where approved, and other applications requiring a compact all-stainless-steel exchanger.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. AlfaNova-14-90P
AlfaNova-14-90P
Model number
AlfaNova-14-90P
Plate count (min)
10 plates
Plate count (max)
150 plates
Max flow rate
22.0 m3/h
Design pressure
30 bar
Application
fusion-bonded all-stainless, hygienic
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
73 plates
Effective flow rate at duty point
22.0 m3/h
Configuration
90P configuration
Common Failures & Inspection Points
  • Fouling or scaling inside the narrow plate channels reduces heat-transfer performance and increases pressure drop
  • Blocked strainers or restricted upstream piping reduce flow and produce abnormal outlet temperatures
  • Corrosion, erosion or fatigue damage to the bonded plate pack can cause internal cross-contamination between circuits
  • External leakage at connections caused by damaged joints, vibration or piping loads produces visible fluid loss
  • Freezing, thermal shock or operation outside the approved pressure and temperature envelope can damage the plate pack and lead to leakage
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine and industrial heating or cooling with aggressive or high-cleanliness media, natural-refrigerant systems, potable or technical-water duties where approved, and other applications requiring a compact all-stainless-steel exchanger.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. AlfaNova-14-120P
AlfaNova-14-120P
Model number
AlfaNova-14-120P
Plate count (min)
10 plates
Plate count (max)
150 plates
Max flow rate
28.0 m3/h
Design pressure
30 bar
Application
fusion-bonded all-stainless, hygienic
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
94 plates
Effective flow rate at duty point
28.0 m3/h
Configuration
120P configuration
Common Failures & Inspection Points
  • Fouling or scaling inside the narrow plate channels reduces heat-transfer performance and increases pressure drop
  • Blocked strainers or restricted upstream piping reduce flow and produce abnormal outlet temperatures
  • Corrosion, erosion or fatigue damage to the bonded plate pack can cause internal cross-contamination between circuits
  • External leakage at connections caused by damaged joints, vibration or piping loads produces visible fluid loss
  • Freezing, thermal shock or operation outside the approved pressure and temperature envelope can damage the plate pack and lead to leakage
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine and industrial heating or cooling with aggressive or high-cleanliness media, natural-refrigerant systems, potable or technical-water duties where approved, and other applications requiring a compact all-stainless-steel exchanger.
Manufacturer Datasheet
Datasheet
AlfaNova-14-150P
Model number
AlfaNova-14-150P
Plate count (min)
10 plates
Plate count (max)
150 plates
Max flow rate
34.0 m3/h
Design pressure
30 bar
Application
fusion-bonded all-stainless, hygienic
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
115 plates
Effective flow rate at duty point
34.0 m3/h
Configuration
150P configuration
Common Failures & Inspection Points
  • Fouling or scaling inside the narrow plate channels reduces heat-transfer performance and increases pressure drop
  • Blocked strainers or restricted upstream piping reduce flow and produce abnormal outlet temperatures
  • Corrosion, erosion or fatigue damage to the bonded plate pack can cause internal cross-contamination between circuits
  • External leakage at connections caused by damaged joints, vibration or piping loads produces visible fluid loss
  • Freezing, thermal shock or operation outside the approved pressure and temperature envelope can damage the plate pack and lead to leakage
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine and industrial heating or cooling with aggressive or high-cleanliness media, natural-refrigerant systems, potable or technical-water duties where approved, and other applications requiring a compact all-stainless-steel exchanger.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. AlfaNova-14-180P
AlfaNova-14-180P
Model number
AlfaNova-14-180P
Plate count (min)
10 plates
Plate count (max)
150 plates
Max flow rate
38.0 m3/h
Design pressure
30 bar
Application
fusion-bonded all-stainless, hygienic
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
136 plates
Effective flow rate at duty point
38.0 m3/h
Configuration
180P configuration
Common Failures & Inspection Points
  • Fouling or scaling inside the narrow plate channels reduces heat-transfer performance and increases pressure drop
  • Blocked strainers or restricted upstream piping reduce flow and produce abnormal outlet temperatures
  • Corrosion, erosion or fatigue damage to the bonded plate pack can cause internal cross-contamination between circuits
  • External leakage at connections caused by damaged joints, vibration or piping loads produces visible fluid loss
  • Freezing, thermal shock or operation outside the approved pressure and temperature envelope can damage the plate pack and lead to leakage
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine and industrial heating or cooling with aggressive or high-cleanliness media, natural-refrigerant systems, potable or technical-water duties where approved, and other applications requiring a compact all-stainless-steel exchanger.
Manufacturer Datasheet
Datasheet
AlfaNova-14-MAX
Model number
AlfaNova-14-MAX
Plate count (min)
10 plates
Plate count (max)
150 plates
Max flow rate
40.0 m3/h
Design pressure
30 bar
Application
fusion-bonded all-stainless, hygienic
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
150 plates
Effective flow rate at duty point
40.0 m3/h
Configuration
MAX configuration
Common Failures & Inspection Points
  • Fouling or scaling inside the narrow plate channels reduces heat-transfer performance and increases pressure drop
  • Blocked strainers or restricted upstream piping reduce flow and produce abnormal outlet temperatures
  • Corrosion, erosion or fatigue damage to the bonded plate pack can cause internal cross-contamination between circuits
  • External leakage at connections caused by damaged joints, vibration or piping loads produces visible fluid loss
  • Freezing, thermal shock or operation outside the approved pressure and temperature envelope can damage the plate pack and lead to leakage
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine and industrial heating or cooling with aggressive or high-cleanliness media, natural-refrigerant systems, potable or technical-water duties where approved, and other applications requiring a compact all-stainless-steel exchanger.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. AlfaNova-27
AlfaNova-27
Model number
AlfaNova-27
Plate count (min)
16 plates
Plate count (max)
200 plates
Max flow rate
100.0 m3/h
Design pressure
30 bar
Application
fusion-bonded all-stainless, hygienic
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Common Failures & Inspection Points
  • Fouling or scaling inside the narrow plate channels reduces heat-transfer performance and increases pressure drop
  • Blocked strainers or restricted upstream piping reduce flow and produce abnormal outlet temperatures
  • Corrosion, erosion or fatigue damage to the bonded plate pack can cause internal cross-contamination between circuits
  • External leakage at connections caused by damaged joints, vibration or piping loads produces visible fluid loss
  • Freezing, thermal shock or operation outside the approved pressure and temperature envelope can damage the plate pack and lead to leakage
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine and industrial heating or cooling with aggressive or high-cleanliness media, natural-refrigerant systems, potable or technical-water duties where approved, and other applications requiring a compact all-stainless-steel exchanger.
Manufacturer Datasheet
Datasheet
AlfaNova-27-30P
Model number
AlfaNova-27-30P
Plate count (min)
16 plates
Plate count (max)
200 plates
Max flow rate
20.0 m3/h
Design pressure
30 bar
Application
fusion-bonded all-stainless, hygienic
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
43 plates
Effective flow rate at duty point
20.0 m3/h
Configuration
30P configuration
Common Failures & Inspection Points
  • Fouling or scaling inside the narrow plate channels reduces heat-transfer performance and increases pressure drop
  • Blocked strainers or restricted upstream piping reduce flow and produce abnormal outlet temperatures
  • Corrosion, erosion or fatigue damage to the bonded plate pack can cause internal cross-contamination between circuits
  • External leakage at connections caused by damaged joints, vibration or piping loads produces visible fluid loss
  • Freezing, thermal shock or operation outside the approved pressure and temperature envelope can damage the plate pack and lead to leakage
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine and industrial heating or cooling with aggressive or high-cleanliness media, natural-refrigerant systems, potable or technical-water duties where approved, and other applications requiring a compact all-stainless-steel exchanger.
Manufacturer Datasheet
Datasheet
AlfaNova-27-60P
Model number
AlfaNova-27-60P
Plate count (min)
16 plates
Plate count (max)
200 plates
Max flow rate
38.0 m3/h
Design pressure
30 bar
Application
fusion-bonded all-stainless, hygienic
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
71 plates
Effective flow rate at duty point
38.0 m3/h
Configuration
60P configuration
Common Failures & Inspection Points
  • Fouling or scaling inside the narrow plate channels reduces heat-transfer performance and increases pressure drop
  • Blocked strainers or restricted upstream piping reduce flow and produce abnormal outlet temperatures
  • Corrosion, erosion or fatigue damage to the bonded plate pack can cause internal cross-contamination between circuits
  • External leakage at connections caused by damaged joints, vibration or piping loads produces visible fluid loss
  • Freezing, thermal shock or operation outside the approved pressure and temperature envelope can damage the plate pack and lead to leakage
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine and industrial heating or cooling with aggressive or high-cleanliness media, natural-refrigerant systems, potable or technical-water duties where approved, and other applications requiring a compact all-stainless-steel exchanger.
Manufacturer Datasheet
Datasheet
AlfaNova-27-90P
Model number
AlfaNova-27-90P
Plate count (min)
16 plates
Plate count (max)
200 plates
Max flow rate
55.0 m3/h
Design pressure
30 bar
Application
fusion-bonded all-stainless, hygienic
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
98 plates
Effective flow rate at duty point
55.0 m3/h
Configuration
90P configuration
Common Failures & Inspection Points
  • Fouling or scaling inside the narrow plate channels reduces heat-transfer performance and increases pressure drop
  • Blocked strainers or restricted upstream piping reduce flow and produce abnormal outlet temperatures
  • Corrosion, erosion or fatigue damage to the bonded plate pack can cause internal cross-contamination between circuits
  • External leakage at connections caused by damaged joints, vibration or piping loads produces visible fluid loss
  • Freezing, thermal shock or operation outside the approved pressure and temperature envelope can damage the plate pack and lead to leakage
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine and industrial heating or cooling with aggressive or high-cleanliness media, natural-refrigerant systems, potable or technical-water duties where approved, and other applications requiring a compact all-stainless-steel exchanger.
Manufacturer Datasheet
Datasheet
AlfaNova-27-120P
Model number
AlfaNova-27-120P
Plate count (min)
16 plates
Plate count (max)
200 plates
Max flow rate
70.0 m3/h
Design pressure
30 bar
Application
fusion-bonded all-stainless, hygienic
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
126 plates
Effective flow rate at duty point
70.0 m3/h
Configuration
120P configuration
Common Failures & Inspection Points
  • Fouling or scaling inside the narrow plate channels reduces heat-transfer performance and increases pressure drop
  • Blocked strainers or restricted upstream piping reduce flow and produce abnormal outlet temperatures
  • Corrosion, erosion or fatigue damage to the bonded plate pack can cause internal cross-contamination between circuits
  • External leakage at connections caused by damaged joints, vibration or piping loads produces visible fluid loss
  • Freezing, thermal shock or operation outside the approved pressure and temperature envelope can damage the plate pack and lead to leakage
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine and industrial heating or cooling with aggressive or high-cleanliness media, natural-refrigerant systems, potable or technical-water duties where approved, and other applications requiring a compact all-stainless-steel exchanger.
Manufacturer Datasheet
Datasheet
AlfaNova-27-150P
Model number
AlfaNova-27-150P
Plate count (min)
16 plates
Plate count (max)
200 plates
Max flow rate
85.0 m3/h
Design pressure
30 bar
Application
fusion-bonded all-stainless, hygienic
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
154 plates
Effective flow rate at duty point
85.0 m3/h
Configuration
150P configuration
Common Failures & Inspection Points
  • Fouling or scaling inside the narrow plate channels reduces heat-transfer performance and increases pressure drop
  • Blocked strainers or restricted upstream piping reduce flow and produce abnormal outlet temperatures
  • Corrosion, erosion or fatigue damage to the bonded plate pack can cause internal cross-contamination between circuits
  • External leakage at connections caused by damaged joints, vibration or piping loads produces visible fluid loss
  • Freezing, thermal shock or operation outside the approved pressure and temperature envelope can damage the plate pack and lead to leakage
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine and industrial heating or cooling with aggressive or high-cleanliness media, natural-refrigerant systems, potable or technical-water duties where approved, and other applications requiring a compact all-stainless-steel exchanger.
Manufacturer Datasheet
Datasheet
AlfaNova-27-180P
Model number
AlfaNova-27-180P
Plate count (min)
16 plates
Plate count (max)
200 plates
Max flow rate
95.0 m3/h
Design pressure
30 bar
Application
fusion-bonded all-stainless, hygienic
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
181 plates
Effective flow rate at duty point
95.0 m3/h
Configuration
180P configuration
Common Failures & Inspection Points
  • Fouling or scaling inside the narrow plate channels reduces heat-transfer performance and increases pressure drop
  • Blocked strainers or restricted upstream piping reduce flow and produce abnormal outlet temperatures
  • Corrosion, erosion or fatigue damage to the bonded plate pack can cause internal cross-contamination between circuits
  • External leakage at connections caused by damaged joints, vibration or piping loads produces visible fluid loss
  • Freezing, thermal shock or operation outside the approved pressure and temperature envelope can damage the plate pack and lead to leakage
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine and industrial heating or cooling with aggressive or high-cleanliness media, natural-refrigerant systems, potable or technical-water duties where approved, and other applications requiring a compact all-stainless-steel exchanger.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. AlfaNova-27-MAX
AlfaNova-27-MAX
Model number
AlfaNova-27-MAX
Plate count (min)
16 plates
Plate count (max)
200 plates
Max flow rate
100.0 m3/h
Design pressure
30 bar
Application
fusion-bonded all-stainless, hygienic
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
200 plates
Effective flow rate at duty point
100.0 m3/h
Configuration
MAX configuration
Common Failures & Inspection Points
  • Fouling or scaling inside the narrow plate channels reduces heat-transfer performance and increases pressure drop
  • Blocked strainers or restricted upstream piping reduce flow and produce abnormal outlet temperatures
  • Corrosion, erosion or fatigue damage to the bonded plate pack can cause internal cross-contamination between circuits
  • External leakage at connections caused by damaged joints, vibration or piping loads produces visible fluid loss
  • Freezing, thermal shock or operation outside the approved pressure and temperature envelope can damage the plate pack and lead to leakage
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine and industrial heating or cooling with aggressive or high-cleanliness media, natural-refrigerant systems, potable or technical-water duties where approved, and other applications requiring a compact all-stainless-steel exchanger.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. AlfaNova-52
AlfaNova-52
Model number
AlfaNova-52
Plate count (min)
20 plates
Plate count (max)
300 plates
Max flow rate
230.0 m3/h
Design pressure
32 bar
Application
fusion-bonded all-stainless, hygienic
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Common Failures & Inspection Points
  • Fouling or scaling inside the narrow plate channels reduces heat-transfer performance and increases pressure drop
  • Blocked strainers or restricted upstream piping reduce flow and produce abnormal outlet temperatures
  • Corrosion, erosion or fatigue damage to the bonded plate pack can cause internal cross-contamination between circuits
  • External leakage at connections caused by damaged joints, vibration or piping loads produces visible fluid loss
  • Freezing, thermal shock or operation outside the approved pressure and temperature envelope can damage the plate pack and lead to leakage
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine and industrial heating or cooling with aggressive or high-cleanliness media, natural-refrigerant systems, potable or technical-water duties where approved, and other applications requiring a compact all-stainless-steel exchanger.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. AlfaNova-52-30P
AlfaNova-52-30P
Model number
AlfaNova-52-30P
Plate count (min)
20 plates
Plate count (max)
300 plates
Max flow rate
46.0 m3/h
Design pressure
32 bar
Application
fusion-bonded all-stainless, hygienic
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
62 plates
Effective flow rate at duty point
46.0 m3/h
Configuration
30P configuration
Common Failures & Inspection Points
  • Fouling or scaling inside the narrow plate channels reduces heat-transfer performance and increases pressure drop
  • Blocked strainers or restricted upstream piping reduce flow and produce abnormal outlet temperatures
  • Corrosion, erosion or fatigue damage to the bonded plate pack can cause internal cross-contamination between circuits
  • External leakage at connections caused by damaged joints, vibration or piping loads produces visible fluid loss
  • Freezing, thermal shock or operation outside the approved pressure and temperature envelope can damage the plate pack and lead to leakage
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine and industrial heating or cooling with aggressive or high-cleanliness media, natural-refrigerant systems, potable or technical-water duties where approved, and other applications requiring a compact all-stainless-steel exchanger.
Manufacturer Datasheet
Datasheet
AlfaNova-52-60P
Model number
AlfaNova-52-60P
Plate count (min)
20 plates
Plate count (max)
300 plates
Max flow rate
87.4 m3/h
Design pressure
32 bar
Application
fusion-bonded all-stainless, hygienic
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
104 plates
Effective flow rate at duty point
87.4 m3/h
Configuration
60P configuration
Common Failures & Inspection Points
  • Fouling or scaling inside the narrow plate channels reduces heat-transfer performance and increases pressure drop
  • Blocked strainers or restricted upstream piping reduce flow and produce abnormal outlet temperatures
  • Corrosion, erosion or fatigue damage to the bonded plate pack can cause internal cross-contamination between circuits
  • External leakage at connections caused by damaged joints, vibration or piping loads produces visible fluid loss
  • Freezing, thermal shock or operation outside the approved pressure and temperature envelope can damage the plate pack and lead to leakage
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine and industrial heating or cooling with aggressive or high-cleanliness media, natural-refrigerant systems, potable or technical-water duties where approved, and other applications requiring a compact all-stainless-steel exchanger.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. AlfaNova-52-90P
AlfaNova-52-90P
Model number
AlfaNova-52-90P
Plate count (min)
20 plates
Plate count (max)
300 plates
Max flow rate
126.5 m3/h
Design pressure
32 bar
Application
fusion-bonded all-stainless, hygienic
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
146 plates
Effective flow rate at duty point
126.5 m3/h
Configuration
90P configuration
Common Failures & Inspection Points
  • Fouling or scaling inside the narrow plate channels reduces heat-transfer performance and increases pressure drop
  • Blocked strainers or restricted upstream piping reduce flow and produce abnormal outlet temperatures
  • Corrosion, erosion or fatigue damage to the bonded plate pack can cause internal cross-contamination between circuits
  • External leakage at connections caused by damaged joints, vibration or piping loads produces visible fluid loss
  • Freezing, thermal shock or operation outside the approved pressure and temperature envelope can damage the plate pack and lead to leakage
Service: Trend inlet and outlet temperatures and pressures to identify gradual loss of thermal performance. Inspect the external plate pack, connections and supports for leakage, corrosion, vibration damage and excessive piping loads. Maintain upstream strainers and system cleanliness, and use only cleaning-in-place procedures compatible with the installed materials. Any indication of cross-contamination requires prompt investigation because the bonded plate pack is not normally opened for onboard repair; refer to the manufacturer documentation for test limits and cleaning criteria.
Spare Parts: Because the bonded plate pack is a sealed assembly, the principal strategic spare is a correctly specified replacement heat exchanger where redundancy and trading pattern justify carrying one. Also consider connection seals, strainer elements, isolation-valve service kits and approved cleaning consumables. A replacement unit must match the original materials, connections, duty and approval requirements.
Use Cases: Marine and industrial heating or cooling with aggressive or high-cleanliness media, natural-refrigerant systems, potable or technical-water duties where approved, and other applications requiring a compact all-stainless-steel exchanger.
Manufacturer Datasheet
Datasheet
AlfaNova-52-120P
Model number
AlfaNova-52-120P
Plate count (min)
20 plates
Plate count (max)
300 plates
Max flow rate
161.0 m3/h
Design pressure
32 bar
Application
fusion-bonded all-stainless, hygienic
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
188 plates
Effective flow rate at duty point
161.0 m3/h
Configuration
120P configuration
Common Failures & Inspection Points
  • Fouling or scaling inside narrow plate channels can increase pressure drop and reduce heat transfer
  • Corrosion, erosion or fatigue damage can create internal leakage between circuits, indicated by cross-contamination or unexplained changes in fluid condition
  • External connection leakage caused by damaged joints or piping loads can produce visible fluid loss
  • Freezing, thermal shock or operation outside the approved envelope can damage the plate pack and cause leakage
  • Blocked strainers or inadequate circulation can reduce flow and produce abnormal outlet temperatures
Service: Trend temperatures, pressures and pressure drop and investigate gradual loss of thermal performance. Inspect external surfaces, connections, supports and adjacent piping for leakage, corrosion, vibration and excessive loads. Use an approved flushing or cleaning-in-place method compatible with the exchanger materials and deposits because the bonded plate pack is not normally opened for routine plate replacement. Investigate any indication of internal cross-contamination promptly. Refer to the manufacturer documentation for exact operating and cleaning limits.
Spare Parts: The principal strategic spare may be a complete correctly specified exchanger where vessel redundancy and trading pattern justify it, together with connection seals, strainer elements and approved cleaning consumables. Any replacement must match the exact materials, connections, duty and approved operating envelope.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. AlfaNova-52-150P
AlfaNova-52-150P
Model number
AlfaNova-52-150P
Plate count (min)
20 plates
Plate count (max)
300 plates
Max flow rate
195.5 m3/h
Design pressure
32 bar
Application
fusion-bonded all-stainless, hygienic
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
230 plates
Effective flow rate at duty point
195.5 m3/h
Configuration
150P configuration
Common Failures & Inspection Points
  • Fouling or scaling inside narrow plate channels can increase pressure drop and reduce heat transfer
  • Corrosion, erosion or fatigue damage can create internal leakage between circuits, indicated by cross-contamination or unexplained changes in fluid condition
  • External connection leakage caused by damaged joints or piping loads can produce visible fluid loss
  • Freezing, thermal shock or operation outside the approved envelope can damage the plate pack and cause leakage
  • Blocked strainers or inadequate circulation can reduce flow and produce abnormal outlet temperatures
Service: Trend temperatures, pressures and pressure drop and investigate gradual loss of thermal performance. Inspect external surfaces, connections, supports and adjacent piping for leakage, corrosion, vibration and excessive loads. Use an approved flushing or cleaning-in-place method compatible with the exchanger materials and deposits because the bonded plate pack is not normally opened for routine plate replacement. Investigate any indication of internal cross-contamination promptly. Refer to the manufacturer documentation for exact operating and cleaning limits.
Spare Parts: The principal strategic spare may be a complete correctly specified exchanger where vessel redundancy and trading pattern justify it, together with connection seals, strainer elements and approved cleaning consumables. Any replacement must match the exact materials, connections, duty and approved operating envelope.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. AlfaNova-52-180P
AlfaNova-52-180P
Model number
AlfaNova-52-180P
Plate count (min)
20 plates
Plate count (max)
300 plates
Max flow rate
218.5 m3/h
Design pressure
32 bar
Application
fusion-bonded all-stainless, hygienic
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
272 plates
Effective flow rate at duty point
218.5 m3/h
Configuration
180P configuration
Common Failures & Inspection Points
  • Fouling or scaling inside narrow plate channels can increase pressure drop and reduce heat transfer
  • Corrosion, erosion or fatigue damage can create internal leakage between circuits, indicated by cross-contamination or unexplained changes in fluid condition
  • External connection leakage caused by damaged joints or piping loads can produce visible fluid loss
  • Freezing, thermal shock or operation outside the approved envelope can damage the plate pack and cause leakage
  • Blocked strainers or inadequate circulation can reduce flow and produce abnormal outlet temperatures
Service: Trend temperatures, pressures and pressure drop and investigate gradual loss of thermal performance. Inspect external surfaces, connections, supports and adjacent piping for leakage, corrosion, vibration and excessive loads. Use an approved flushing or cleaning-in-place method compatible with the exchanger materials and deposits because the bonded plate pack is not normally opened for routine plate replacement. Investigate any indication of internal cross-contamination promptly. Refer to the manufacturer documentation for exact operating and cleaning limits.
Spare Parts: The principal strategic spare may be a complete correctly specified exchanger where vessel redundancy and trading pattern justify it, together with connection seals, strainer elements and approved cleaning consumables. Any replacement must match the exact materials, connections, duty and approved operating envelope.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. AlfaNova-52-MAX
AlfaNova-52-MAX
Model number
AlfaNova-52-MAX
Plate count (min)
20 plates
Plate count (max)
300 plates
Max flow rate
230.0 m3/h
Design pressure
32 bar
Application
fusion-bonded all-stainless, hygienic
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
300 plates
Effective flow rate at duty point
230.0 m3/h
Configuration
MAX configuration
Common Failures & Inspection Points
  • Fouling or scaling inside narrow plate channels can increase pressure drop and reduce heat transfer
  • Corrosion, erosion or fatigue damage can create internal leakage between circuits, indicated by cross-contamination or unexplained changes in fluid condition
  • External connection leakage caused by damaged joints or piping loads can produce visible fluid loss
  • Freezing, thermal shock or operation outside the approved envelope can damage the plate pack and cause leakage
  • Blocked strainers or inadequate circulation can reduce flow and produce abnormal outlet temperatures
Service: Trend temperatures, pressures and pressure drop and investigate gradual loss of thermal performance. Inspect external surfaces, connections, supports and adjacent piping for leakage, corrosion, vibration and excessive loads. Use an approved flushing or cleaning-in-place method compatible with the exchanger materials and deposits because the bonded plate pack is not normally opened for routine plate replacement. Investigate any indication of internal cross-contamination promptly. Refer to the manufacturer documentation for exact operating and cleaning limits.
Spare Parts: The principal strategic spare may be a complete correctly specified exchanger where vessel redundancy and trading pattern justify it, together with connection seals, strainer elements and approved cleaning consumables. Any replacement must match the exact materials, connections, duty and approved operating envelope.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. AlfaNova-76
AlfaNova-76
Model number
AlfaNova-76
Plate count (min)
30 plates
Plate count (max)
350 plates
Max flow rate
340.0 m3/h
Design pressure
32 bar
Application
fusion-bonded all-stainless, hygienic
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Common Failures & Inspection Points
  • Fouling or scaling inside narrow plate channels can increase pressure drop and reduce heat transfer
  • Corrosion, erosion or fatigue damage can create internal leakage between circuits, indicated by cross-contamination or unexplained changes in fluid condition
  • External connection leakage caused by damaged joints or piping loads can produce visible fluid loss
  • Freezing, thermal shock or operation outside the approved envelope can damage the plate pack and cause leakage
  • Blocked strainers or inadequate circulation can reduce flow and produce abnormal outlet temperatures
Service: Trend temperatures, pressures and pressure drop and investigate gradual loss of thermal performance. Inspect external surfaces, connections, supports and adjacent piping for leakage, corrosion, vibration and excessive loads. Use an approved flushing or cleaning-in-place method compatible with the exchanger materials and deposits because the bonded plate pack is not normally opened for routine plate replacement. Investigate any indication of internal cross-contamination promptly. Refer to the manufacturer documentation for exact operating and cleaning limits.
Spare Parts: The principal strategic spare may be a complete correctly specified exchanger where vessel redundancy and trading pattern justify it, together with connection seals, strainer elements and approved cleaning consumables. Any replacement must match the exact materials, connections, duty and approved operating envelope.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
AlfaNova-76-30P
Model number
AlfaNova-76-30P
Plate count (min)
30 plates
Plate count (max)
350 plates
Max flow rate
68.0 m3/h
Design pressure
32 bar
Application
fusion-bonded all-stainless, hygienic
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
78 plates
Effective flow rate at duty point
68.0 m3/h
Configuration
30P configuration
Common Failures & Inspection Points
  • Fouling or scaling inside narrow plate channels can increase pressure drop and reduce heat transfer
  • Corrosion, erosion or fatigue damage can create internal leakage between circuits, indicated by cross-contamination or unexplained changes in fluid condition
  • External connection leakage caused by damaged joints or piping loads can produce visible fluid loss
  • Freezing, thermal shock or operation outside the approved envelope can damage the plate pack and cause leakage
  • Blocked strainers or inadequate circulation can reduce flow and produce abnormal outlet temperatures
Service: Trend temperatures, pressures and pressure drop and investigate gradual loss of thermal performance. Inspect external surfaces, connections, supports and adjacent piping for leakage, corrosion, vibration and excessive loads. Use an approved flushing or cleaning-in-place method compatible with the exchanger materials and deposits because the bonded plate pack is not normally opened for routine plate replacement. Investigate any indication of internal cross-contamination promptly. Refer to the manufacturer documentation for exact operating and cleaning limits.
Spare Parts: The principal strategic spare may be a complete correctly specified exchanger where vessel redundancy and trading pattern justify it, together with connection seals, strainer elements and approved cleaning consumables. Any replacement must match the exact materials, connections, duty and approved operating envelope.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. AlfaNova-76-60P
AlfaNova-76-60P
Model number
AlfaNova-76-60P
Plate count (min)
30 plates
Plate count (max)
350 plates
Max flow rate
129.2 m3/h
Design pressure
32 bar
Application
fusion-bonded all-stainless, hygienic
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
126 plates
Effective flow rate at duty point
129.2 m3/h
Configuration
60P configuration
Common Failures & Inspection Points
  • Fouling or scaling inside narrow plate channels can increase pressure drop and reduce heat transfer
  • Corrosion, erosion or fatigue damage can create internal leakage between circuits, indicated by cross-contamination or unexplained changes in fluid condition
  • External connection leakage caused by damaged joints or piping loads can produce visible fluid loss
  • Freezing, thermal shock or operation outside the approved envelope can damage the plate pack and cause leakage
  • Blocked strainers or inadequate circulation can reduce flow and produce abnormal outlet temperatures
Service: Trend temperatures, pressures and pressure drop and investigate gradual loss of thermal performance. Inspect external surfaces, connections, supports and adjacent piping for leakage, corrosion, vibration and excessive loads. Use an approved flushing or cleaning-in-place method compatible with the exchanger materials and deposits because the bonded plate pack is not normally opened for routine plate replacement. Investigate any indication of internal cross-contamination promptly. Refer to the manufacturer documentation for exact operating and cleaning limits.
Spare Parts: The principal strategic spare may be a complete correctly specified exchanger where vessel redundancy and trading pattern justify it, together with connection seals, strainer elements and approved cleaning consumables. Any replacement must match the exact materials, connections, duty and approved operating envelope.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
AlfaNova-76-90P
Model number
AlfaNova-76-90P
Plate count (min)
30 plates
Plate count (max)
350 plates
Max flow rate
187.0 m3/h
Design pressure
32 bar
Application
fusion-bonded all-stainless, hygienic
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
174 plates
Effective flow rate at duty point
187.0 m3/h
Configuration
90P configuration
Common Failures & Inspection Points
  • Fouling or scaling inside narrow plate channels can increase pressure drop and reduce heat transfer
  • Corrosion, erosion or fatigue damage can create internal leakage between circuits, indicated by cross-contamination or unexplained changes in fluid condition
  • External connection leakage caused by damaged joints or piping loads can produce visible fluid loss
  • Freezing, thermal shock or operation outside the approved envelope can damage the plate pack and cause leakage
  • Blocked strainers or inadequate circulation can reduce flow and produce abnormal outlet temperatures
Service: Trend temperatures, pressures and pressure drop and investigate gradual loss of thermal performance. Inspect external surfaces, connections, supports and adjacent piping for leakage, corrosion, vibration and excessive loads. Use an approved flushing or cleaning-in-place method compatible with the exchanger materials and deposits because the bonded plate pack is not normally opened for routine plate replacement. Investigate any indication of internal cross-contamination promptly. Refer to the manufacturer documentation for exact operating and cleaning limits.
Spare Parts: The principal strategic spare may be a complete correctly specified exchanger where vessel redundancy and trading pattern justify it, together with connection seals, strainer elements and approved cleaning consumables. Any replacement must match the exact materials, connections, duty and approved operating envelope.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
AlfaNova-76-120P
Model number
AlfaNova-76-120P
Plate count (min)
30 plates
Plate count (max)
350 plates
Max flow rate
238.0 m3/h
Design pressure
32 bar
Application
fusion-bonded all-stainless, hygienic
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
222 plates
Effective flow rate at duty point
238.0 m3/h
Configuration
120P configuration
Common Failures & Inspection Points
  • Fouling or scaling inside narrow plate channels can increase pressure drop and reduce heat transfer
  • Corrosion, erosion or fatigue damage can create internal leakage between circuits, indicated by cross-contamination or unexplained changes in fluid condition
  • External connection leakage caused by damaged joints or piping loads can produce visible fluid loss
  • Freezing, thermal shock or operation outside the approved envelope can damage the plate pack and cause leakage
  • Blocked strainers or inadequate circulation can reduce flow and produce abnormal outlet temperatures
Service: Trend temperatures, pressures and pressure drop and investigate gradual loss of thermal performance. Inspect external surfaces, connections, supports and adjacent piping for leakage, corrosion, vibration and excessive loads. Use an approved flushing or cleaning-in-place method compatible with the exchanger materials and deposits because the bonded plate pack is not normally opened for routine plate replacement. Investigate any indication of internal cross-contamination promptly. Refer to the manufacturer documentation for exact operating and cleaning limits.
Spare Parts: The principal strategic spare may be a complete correctly specified exchanger where vessel redundancy and trading pattern justify it, together with connection seals, strainer elements and approved cleaning consumables. Any replacement must match the exact materials, connections, duty and approved operating envelope.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
AlfaNova-76-150P
Model number
AlfaNova-76-150P
Plate count (min)
30 plates
Plate count (max)
350 plates
Max flow rate
289.0 m3/h
Design pressure
32 bar
Application
fusion-bonded all-stainless, hygienic
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
270 plates
Effective flow rate at duty point
289.0 m3/h
Configuration
150P configuration
Common Failures & Inspection Points
  • Fouling or scaling inside narrow plate channels can increase pressure drop and reduce heat transfer
  • Corrosion, erosion or fatigue damage can create internal leakage between circuits, indicated by cross-contamination or unexplained changes in fluid condition
  • External connection leakage caused by damaged joints or piping loads can produce visible fluid loss
  • Freezing, thermal shock or operation outside the approved envelope can damage the plate pack and cause leakage
  • Blocked strainers or inadequate circulation can reduce flow and produce abnormal outlet temperatures
Service: Trend temperatures, pressures and pressure drop and investigate gradual loss of thermal performance. Inspect external surfaces, connections, supports and adjacent piping for leakage, corrosion, vibration and excessive loads. Use an approved flushing or cleaning-in-place method compatible with the exchanger materials and deposits because the bonded plate pack is not normally opened for routine plate replacement. Investigate any indication of internal cross-contamination promptly. Refer to the manufacturer documentation for exact operating and cleaning limits.
Spare Parts: The principal strategic spare may be a complete correctly specified exchanger where vessel redundancy and trading pattern justify it, together with connection seals, strainer elements and approved cleaning consumables. Any replacement must match the exact materials, connections, duty and approved operating envelope.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. AlfaNova-76-180P
AlfaNova-76-180P
Model number
AlfaNova-76-180P
Plate count (min)
30 plates
Plate count (max)
350 plates
Max flow rate
323.0 m3/h
Design pressure
32 bar
Application
fusion-bonded all-stainless, hygienic
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
318 plates
Effective flow rate at duty point
323.0 m3/h
Configuration
180P configuration
Common Failures & Inspection Points
  • Fouling or scaling inside narrow plate channels can increase pressure drop and reduce heat transfer
  • Corrosion, erosion or fatigue damage can create internal leakage between circuits, indicated by cross-contamination or unexplained changes in fluid condition
  • External connection leakage caused by damaged joints or piping loads can produce visible fluid loss
  • Freezing, thermal shock or operation outside the approved envelope can damage the plate pack and cause leakage
  • Blocked strainers or inadequate circulation can reduce flow and produce abnormal outlet temperatures
Service: Trend temperatures, pressures and pressure drop and investigate gradual loss of thermal performance. Inspect external surfaces, connections, supports and adjacent piping for leakage, corrosion, vibration and excessive loads. Use an approved flushing or cleaning-in-place method compatible with the exchanger materials and deposits because the bonded plate pack is not normally opened for routine plate replacement. Investigate any indication of internal cross-contamination promptly. Refer to the manufacturer documentation for exact operating and cleaning limits.
Spare Parts: The principal strategic spare may be a complete correctly specified exchanger where vessel redundancy and trading pattern justify it, together with connection seals, strainer elements and approved cleaning consumables. Any replacement must match the exact materials, connections, duty and approved operating envelope.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. AlfaNova-76-MAX
AlfaNova-76-MAX
Model number
AlfaNova-76-MAX
Plate count (min)
30 plates
Plate count (max)
350 plates
Max flow rate
340.0 m3/h
Design pressure
32 bar
Application
fusion-bonded all-stainless, hygienic
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
350 plates
Effective flow rate at duty point
340.0 m3/h
Configuration
MAX configuration
Common Failures & Inspection Points
  • Fouling or scaling inside narrow plate channels can increase pressure drop and reduce heat transfer
  • Corrosion, erosion or fatigue damage can create internal leakage between circuits, indicated by cross-contamination or unexplained changes in fluid condition
  • External connection leakage caused by damaged joints or piping loads can produce visible fluid loss
  • Freezing, thermal shock or operation outside the approved envelope can damage the plate pack and cause leakage
  • Blocked strainers or inadequate circulation can reduce flow and produce abnormal outlet temperatures
Service: Trend temperatures, pressures and pressure drop and investigate gradual loss of thermal performance. Inspect external surfaces, connections, supports and adjacent piping for leakage, corrosion, vibration and excessive loads. Use an approved flushing or cleaning-in-place method compatible with the exchanger materials and deposits because the bonded plate pack is not normally opened for routine plate replacement. Investigate any indication of internal cross-contamination promptly. Refer to the manufacturer documentation for exact operating and cleaning limits.
Spare Parts: The principal strategic spare may be a complete correctly specified exchanger where vessel redundancy and trading pattern justify it, together with connection seals, strainer elements and approved cleaning consumables. Any replacement must match the exact materials, connections, duty and approved operating envelope.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
T2-30P
Model number
T2-30P
Plate count (min)
10 plates
Plate count (max)
150 plates
Max flow rate
2.4 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
compact industrial, food, HVAC
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
31 plates
Effective flow rate at duty point
2.4 m3/h
Configuration
30P configuration
Common Failures & Inspection Points
  • Plate-channel fouling or scaling caused by contaminated fluid can increase pressure drop and reduce heat-transfer performance
  • Aged, damaged or incorrectly seated gaskets can cause external leakage or mixing at the plate edge
  • Corrosion, erosion or cracking of a plate can cause internal cross-contamination indicated by unexpected fluid quality, tank level or pressure changes
  • Incorrect plate sequence or uneven tightening after maintenance can cause leakage, poor flow distribution or reduced thermal performance
  • Blocked strainers or restricted upstream piping can reduce flow and produce abnormal inlet-to-outlet temperatures
Service: Trend inlet and outlet temperatures, pressures and differential pressure so gradual fouling is detected before the exchanger loses required duty. Inspect the plate-pack edges, frame, tightening bolts, connections and supports for leakage, corrosion, distortion and piping loads. When opened, check plates for deposits, pitting, erosion, cracks and deformation and verify correct plate sequence and gasket seating during reassembly. Use only cleaning methods compatible with the installed plate and gasket materials. Refer to the manufacturer documentation for the exact tightening dimension, allowable pressure, temperature and cleaning limits.
Spare Parts: Carry the exact gasket type used in the installed plate pack, selected spare plates where operationally justified, connection seals and associated strainer elements. Plate and gasket materials must be matched to the exact exchanger configuration and process fluids before ordering.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
T2-60P
Model number
T2-60P
Plate count (min)
10 plates
Plate count (max)
150 plates
Max flow rate
4.6 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
compact industrial, food, HVAC
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
52 plates
Effective flow rate at duty point
4.6 m3/h
Configuration
60P configuration
Common Failures & Inspection Points
  • Plate-channel fouling or scaling caused by contaminated fluid can increase pressure drop and reduce heat-transfer performance
  • Aged, damaged or incorrectly seated gaskets can cause external leakage or mixing at the plate edge
  • Corrosion, erosion or cracking of a plate can cause internal cross-contamination indicated by unexpected fluid quality, tank level or pressure changes
  • Incorrect plate sequence or uneven tightening after maintenance can cause leakage, poor flow distribution or reduced thermal performance
  • Blocked strainers or restricted upstream piping can reduce flow and produce abnormal inlet-to-outlet temperatures
Service: Trend inlet and outlet temperatures, pressures and differential pressure so gradual fouling is detected before the exchanger loses required duty. Inspect the plate-pack edges, frame, tightening bolts, connections and supports for leakage, corrosion, distortion and piping loads. When opened, check plates for deposits, pitting, erosion, cracks and deformation and verify correct plate sequence and gasket seating during reassembly. Use only cleaning methods compatible with the installed plate and gasket materials. Refer to the manufacturer documentation for the exact tightening dimension, allowable pressure, temperature and cleaning limits.
Spare Parts: Carry the exact gasket type used in the installed plate pack, selected spare plates where operationally justified, connection seals and associated strainer elements. Plate and gasket materials must be matched to the exact exchanger configuration and process fluids before ordering.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
T2-90P
Model number
T2-90P
Plate count (min)
10 plates
Plate count (max)
150 plates
Max flow rate
6.6 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
compact industrial, food, HVAC
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
73 plates
Effective flow rate at duty point
6.6 m3/h
Configuration
90P configuration
Common Failures & Inspection Points
  • Plate-channel fouling or scaling caused by contaminated fluid can increase pressure drop and reduce heat-transfer performance
  • Aged, damaged or incorrectly seated gaskets can cause external leakage or mixing at the plate edge
  • Corrosion, erosion or cracking of a plate can cause internal cross-contamination indicated by unexpected fluid quality, tank level or pressure changes
  • Incorrect plate sequence or uneven tightening after maintenance can cause leakage, poor flow distribution or reduced thermal performance
  • Blocked strainers or restricted upstream piping can reduce flow and produce abnormal inlet-to-outlet temperatures
Service: Trend inlet and outlet temperatures, pressures and differential pressure so gradual fouling is detected before the exchanger loses required duty. Inspect the plate-pack edges, frame, tightening bolts, connections and supports for leakage, corrosion, distortion and piping loads. When opened, check plates for deposits, pitting, erosion, cracks and deformation and verify correct plate sequence and gasket seating during reassembly. Use only cleaning methods compatible with the installed plate and gasket materials. Refer to the manufacturer documentation for the exact tightening dimension, allowable pressure, temperature and cleaning limits.
Spare Parts: Carry the exact gasket type used in the installed plate pack, selected spare plates where operationally justified, connection seals and associated strainer elements. Plate and gasket materials must be matched to the exact exchanger configuration and process fluids before ordering.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. T2-120P
T2-120P
Model number
T2-120P
Plate count (min)
10 plates
Plate count (max)
150 plates
Max flow rate
8.4 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
compact industrial, food, HVAC
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
94 plates
Effective flow rate at duty point
8.4 m3/h
Configuration
120P configuration
Common Failures & Inspection Points
  • Plate-channel fouling or scaling caused by contaminated fluid can increase pressure drop and reduce heat-transfer performance
  • Aged, damaged or incorrectly seated gaskets can cause external leakage or mixing at the plate edge
  • Corrosion, erosion or cracking of a plate can cause internal cross-contamination indicated by unexpected fluid quality, tank level or pressure changes
  • Incorrect plate sequence or uneven tightening after maintenance can cause leakage, poor flow distribution or reduced thermal performance
  • Blocked strainers or restricted upstream piping can reduce flow and produce abnormal inlet-to-outlet temperatures
Service: Trend inlet and outlet temperatures, pressures and differential pressure so gradual fouling is detected before the exchanger loses required duty. Inspect the plate-pack edges, frame, tightening bolts, connections and supports for leakage, corrosion, distortion and piping loads. When opened, check plates for deposits, pitting, erosion, cracks and deformation and verify correct plate sequence and gasket seating during reassembly. Use only cleaning methods compatible with the installed plate and gasket materials. Refer to the manufacturer documentation for the exact tightening dimension, allowable pressure, temperature and cleaning limits.
Spare Parts: Carry the exact gasket type used in the installed plate pack, selected spare plates where operationally justified, connection seals and associated strainer elements. Plate and gasket materials must be matched to the exact exchanger configuration and process fluids before ordering.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
T2-150P
Model number
T2-150P
Plate count (min)
10 plates
Plate count (max)
150 plates
Max flow rate
10.2 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
compact industrial, food, HVAC
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
115 plates
Effective flow rate at duty point
10.2 m3/h
Configuration
150P configuration
Common Failures & Inspection Points
  • Plate-channel fouling or scaling caused by contaminated fluid can increase pressure drop and reduce heat-transfer performance
  • Aged, damaged or incorrectly seated gaskets can cause external leakage or mixing at the plate edge
  • Corrosion, erosion or cracking of a plate can cause internal cross-contamination indicated by unexpected fluid quality, tank level or pressure changes
  • Incorrect plate sequence or uneven tightening after maintenance can cause leakage, poor flow distribution or reduced thermal performance
  • Blocked strainers or restricted upstream piping can reduce flow and produce abnormal inlet-to-outlet temperatures
Service: Trend inlet and outlet temperatures, pressures and differential pressure so gradual fouling is detected before the exchanger loses required duty. Inspect the plate-pack edges, frame, tightening bolts, connections and supports for leakage, corrosion, distortion and piping loads. When opened, check plates for deposits, pitting, erosion, cracks and deformation and verify correct plate sequence and gasket seating during reassembly. Use only cleaning methods compatible with the installed plate and gasket materials. Refer to the manufacturer documentation for the exact tightening dimension, allowable pressure, temperature and cleaning limits.
Spare Parts: Carry the exact gasket type used in the installed plate pack, selected spare plates where operationally justified, connection seals and associated strainer elements. Plate and gasket materials must be matched to the exact exchanger configuration and process fluids before ordering.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
T2-180P
Model number
T2-180P
Plate count (min)
10 plates
Plate count (max)
150 plates
Max flow rate
11.4 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
compact industrial, food, HVAC
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
136 plates
Effective flow rate at duty point
11.4 m3/h
Configuration
180P configuration
Common Failures & Inspection Points
  • Plate-channel fouling or scaling caused by contaminated fluid can increase pressure drop and reduce heat-transfer performance
  • Aged, damaged or incorrectly seated gaskets can cause external leakage or mixing at the plate edge
  • Corrosion, erosion or cracking of a plate can cause internal cross-contamination indicated by unexpected fluid quality, tank level or pressure changes
  • Incorrect plate sequence or uneven tightening after maintenance can cause leakage, poor flow distribution or reduced thermal performance
  • Blocked strainers or restricted upstream piping can reduce flow and produce abnormal inlet-to-outlet temperatures
Service: Trend inlet and outlet temperatures, pressures and differential pressure so gradual fouling is detected before the exchanger loses required duty. Inspect the plate-pack edges, frame, tightening bolts, connections and supports for leakage, corrosion, distortion and piping loads. When opened, check plates for deposits, pitting, erosion, cracks and deformation and verify correct plate sequence and gasket seating during reassembly. Use only cleaning methods compatible with the installed plate and gasket materials. Refer to the manufacturer documentation for the exact tightening dimension, allowable pressure, temperature and cleaning limits.
Spare Parts: Carry the exact gasket type used in the installed plate pack, selected spare plates where operationally justified, connection seals and associated strainer elements. Plate and gasket materials must be matched to the exact exchanger configuration and process fluids before ordering.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. T2-MAX
T2-MAX
Model number
T2-MAX
Plate count (min)
10 plates
Plate count (max)
150 plates
Max flow rate
12.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
compact industrial, food, HVAC
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
150 plates
Effective flow rate at duty point
12.0 m3/h
Configuration
MAX configuration
Common Failures & Inspection Points
  • Plate-channel fouling or scaling caused by contaminated fluid can increase pressure drop and reduce heat-transfer performance
  • Aged, damaged or incorrectly seated gaskets can cause external leakage or mixing at the plate edge
  • Corrosion, erosion or cracking of a plate can cause internal cross-contamination indicated by unexpected fluid quality, tank level or pressure changes
  • Incorrect plate sequence or uneven tightening after maintenance can cause leakage, poor flow distribution or reduced thermal performance
  • Blocked strainers or restricted upstream piping can reduce flow and produce abnormal inlet-to-outlet temperatures
Service: Trend inlet and outlet temperatures, pressures and differential pressure so gradual fouling is detected before the exchanger loses required duty. Inspect the plate-pack edges, frame, tightening bolts, connections and supports for leakage, corrosion, distortion and piping loads. When opened, check plates for deposits, pitting, erosion, cracks and deformation and verify correct plate sequence and gasket seating during reassembly. Use only cleaning methods compatible with the installed plate and gasket materials. Refer to the manufacturer documentation for the exact tightening dimension, allowable pressure, temperature and cleaning limits.
Spare Parts: Carry the exact gasket type used in the installed plate pack, selected spare plates where operationally justified, connection seals and associated strainer elements. Plate and gasket materials must be matched to the exact exchanger configuration and process fluids before ordering.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
T5-30P
Model number
T5-30P
Plate count (min)
10 plates
Plate count (max)
200 plates
Max flow rate
7.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
industrial heating, district heating
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
38 plates
Effective flow rate at duty point
7.0 m3/h
Configuration
30P configuration
Common Failures & Inspection Points
  • Plate-channel fouling or scaling caused by contaminated fluid can increase pressure drop and reduce heat-transfer performance
  • Aged, damaged or incorrectly seated gaskets can cause external leakage or mixing at the plate edge
  • Corrosion, erosion or cracking of a plate can cause internal cross-contamination indicated by unexpected fluid quality, tank level or pressure changes
  • Incorrect plate sequence or uneven tightening after maintenance can cause leakage, poor flow distribution or reduced thermal performance
  • Blocked strainers or restricted upstream piping can reduce flow and produce abnormal inlet-to-outlet temperatures
Service: Trend inlet and outlet temperatures, pressures and differential pressure so gradual fouling is detected before the exchanger loses required duty. Inspect the plate-pack edges, frame, tightening bolts, connections and supports for leakage, corrosion, distortion and piping loads. When opened, check plates for deposits, pitting, erosion, cracks and deformation and verify correct plate sequence and gasket seating during reassembly. Use only cleaning methods compatible with the installed plate and gasket materials. Refer to the manufacturer documentation for the exact tightening dimension, allowable pressure, temperature and cleaning limits.
Spare Parts: Carry the exact gasket type used in the installed plate pack, selected spare plates where operationally justified, connection seals and associated strainer elements. Plate and gasket materials must be matched to the exact exchanger configuration and process fluids before ordering.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
T5-60P
Model number
T5-60P
Plate count (min)
10 plates
Plate count (max)
200 plates
Max flow rate
13.3 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
industrial heating, district heating
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
67 plates
Effective flow rate at duty point
13.3 m3/h
Configuration
60P configuration
Common Failures & Inspection Points
  • Plate-channel fouling or scaling caused by contaminated fluid can increase pressure drop and reduce heat-transfer performance
  • Aged, damaged or incorrectly seated gaskets can cause external leakage or mixing at the plate edge
  • Corrosion, erosion or cracking of a plate can cause internal cross-contamination indicated by unexpected fluid quality, tank level or pressure changes
  • Incorrect plate sequence or uneven tightening after maintenance can cause leakage, poor flow distribution or reduced thermal performance
  • Blocked strainers or restricted upstream piping can reduce flow and produce abnormal inlet-to-outlet temperatures
Service: Trend inlet and outlet temperatures, pressures and differential pressure so gradual fouling is detected before the exchanger loses required duty. Inspect the plate-pack edges, frame, tightening bolts, connections and supports for leakage, corrosion, distortion and piping loads. When opened, check plates for deposits, pitting, erosion, cracks and deformation and verify correct plate sequence and gasket seating during reassembly. Use only cleaning methods compatible with the installed plate and gasket materials. Refer to the manufacturer documentation for the exact tightening dimension, allowable pressure, temperature and cleaning limits.
Spare Parts: Carry the exact gasket type used in the installed plate pack, selected spare plates where operationally justified, connection seals and associated strainer elements. Plate and gasket materials must be matched to the exact exchanger configuration and process fluids before ordering.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. T5-90P
T5-90P
Model number
T5-90P
Plate count (min)
10 plates
Plate count (max)
200 plates
Max flow rate
19.2 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
industrial heating, district heating
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
95 plates
Effective flow rate at duty point
19.2 m3/h
Configuration
90P configuration
Common Failures & Inspection Points
  • Plate-channel fouling or scaling caused by contaminated fluid can increase pressure drop and reduce heat-transfer performance
  • Aged, damaged or incorrectly seated gaskets can cause external leakage or mixing at the plate edge
  • Corrosion, erosion or cracking of a plate can cause internal cross-contamination indicated by unexpected fluid quality, tank level or pressure changes
  • Incorrect plate sequence or uneven tightening after maintenance can cause leakage, poor flow distribution or reduced thermal performance
  • Blocked strainers or restricted upstream piping can reduce flow and produce abnormal inlet-to-outlet temperatures
Service: Trend inlet and outlet temperatures, pressures and differential pressure so gradual fouling is detected before the exchanger loses required duty. Inspect the plate-pack edges, frame, tightening bolts, connections and supports for leakage, corrosion, distortion and piping loads. When opened, check plates for deposits, pitting, erosion, cracks and deformation and verify correct plate sequence and gasket seating during reassembly. Use only cleaning methods compatible with the installed plate and gasket materials. Refer to the manufacturer documentation for the exact tightening dimension, allowable pressure, temperature and cleaning limits.
Spare Parts: Carry the exact gasket type used in the installed plate pack, selected spare plates where operationally justified, connection seals and associated strainer elements. Plate and gasket materials must be matched to the exact exchanger configuration and process fluids before ordering.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
T5-120P
Model number
T5-120P
Plate count (min)
10 plates
Plate count (max)
200 plates
Max flow rate
24.5 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
industrial heating, district heating
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
124 plates
Effective flow rate at duty point
24.5 m3/h
Configuration
120P configuration
Common Failures & Inspection Points
  • Plate-channel fouling or scaling caused by contaminated fluid can increase pressure drop and reduce heat-transfer performance
  • Aged, damaged or incorrectly seated gaskets can cause external leakage or mixing at the plate edge
  • Corrosion, erosion or cracking of a plate can cause internal cross-contamination indicated by unexpected fluid quality, tank level or pressure changes
  • Incorrect plate sequence or uneven tightening after maintenance can cause leakage, poor flow distribution or reduced thermal performance
  • Blocked strainers or restricted upstream piping can reduce flow and produce abnormal inlet-to-outlet temperatures
Service: Trend inlet and outlet temperatures, pressures and differential pressure so gradual fouling is detected before the exchanger loses required duty. Inspect the plate-pack edges, frame, tightening bolts, connections and supports for leakage, corrosion, distortion and piping loads. When opened, check plates for deposits, pitting, erosion, cracks and deformation and verify correct plate sequence and gasket seating during reassembly. Use only cleaning methods compatible with the installed plate and gasket materials. Refer to the manufacturer documentation for the exact tightening dimension, allowable pressure, temperature and cleaning limits.
Spare Parts: Carry the exact gasket type used in the installed plate pack, selected spare plates where operationally justified, connection seals and associated strainer elements. Plate and gasket materials must be matched to the exact exchanger configuration and process fluids before ordering.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. T5-150P
T5-150P
Model number
T5-150P
Plate count (min)
10 plates
Plate count (max)
200 plates
Max flow rate
29.8 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
industrial heating, district heating
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
152 plates
Effective flow rate at duty point
29.8 m3/h
Configuration
150P configuration
Common Failures & Inspection Points
  • Plate-channel fouling or scaling caused by contaminated fluid can increase pressure drop and reduce heat-transfer performance
  • Aged, damaged or incorrectly seated gaskets can cause external leakage or mixing at the plate edge
  • Corrosion, erosion or cracking of a plate can cause internal cross-contamination indicated by unexpected fluid quality, tank level or pressure changes
  • Incorrect plate sequence or uneven tightening after maintenance can cause leakage, poor flow distribution or reduced thermal performance
  • Blocked strainers or restricted upstream piping can reduce flow and produce abnormal inlet-to-outlet temperatures
Service: Trend inlet and outlet temperatures, pressures and differential pressure so gradual fouling is detected before the exchanger loses required duty. Inspect the plate-pack edges, frame, tightening bolts, connections and supports for leakage, corrosion, distortion and piping loads. When opened, check plates for deposits, pitting, erosion, cracks and deformation and verify correct plate sequence and gasket seating during reassembly. Use only cleaning methods compatible with the installed plate and gasket materials. Refer to the manufacturer documentation for the exact tightening dimension, allowable pressure, temperature and cleaning limits.
Spare Parts: Carry the exact gasket type used in the installed plate pack, selected spare plates where operationally justified, connection seals and associated strainer elements. Plate and gasket materials must be matched to the exact exchanger configuration and process fluids before ordering.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. T5-180P
T5-180P
Model number
T5-180P
Plate count (min)
10 plates
Plate count (max)
200 plates
Max flow rate
33.2 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
industrial heating, district heating
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
181 plates
Effective flow rate at duty point
33.2 m3/h
Configuration
180P configuration
Common Failures & Inspection Points
  • Plate-channel fouling or scaling caused by contaminated fluid can increase pressure drop and reduce heat-transfer performance
  • Aged, damaged or incorrectly seated gaskets can cause external leakage or mixing at the plate edge
  • Corrosion, erosion or cracking of a plate can cause internal cross-contamination indicated by unexpected fluid quality, tank level or pressure changes
  • Incorrect plate sequence or uneven tightening after maintenance can cause leakage, poor flow distribution or reduced thermal performance
  • Blocked strainers or restricted upstream piping can reduce flow and produce abnormal inlet-to-outlet temperatures
Service: Trend inlet and outlet temperatures, pressures and differential pressure so gradual fouling is detected before the exchanger loses required duty. Inspect the plate-pack edges, frame, tightening bolts, connections and supports for leakage, corrosion, distortion and piping loads. When opened, check plates for deposits, pitting, erosion, cracks and deformation and verify correct plate sequence and gasket seating during reassembly. Use only cleaning methods compatible with the installed plate and gasket materials. Refer to the manufacturer documentation for the exact tightening dimension, allowable pressure, temperature and cleaning limits.
Spare Parts: Carry the exact gasket type used in the installed plate pack, selected spare plates where operationally justified, connection seals and associated strainer elements. Plate and gasket materials must be matched to the exact exchanger configuration and process fluids before ordering.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. T5-MAX
T5-MAX
Model number
T5-MAX
Plate count (min)
10 plates
Plate count (max)
200 plates
Max flow rate
35.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
industrial heating, district heating
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
200 plates
Effective flow rate at duty point
35.0 m3/h
Configuration
MAX configuration
Common Failures & Inspection Points
  • Plate-channel fouling or scaling caused by contaminated fluid can increase pressure drop and reduce heat-transfer performance
  • Aged, damaged or incorrectly seated gaskets can cause external leakage or mixing at the plate edge
  • Corrosion, erosion or cracking of a plate can cause internal cross-contamination indicated by unexpected fluid quality, tank level or pressure changes
  • Incorrect plate sequence or uneven tightening after maintenance can cause leakage, poor flow distribution or reduced thermal performance
  • Blocked strainers or restricted upstream piping can reduce flow and produce abnormal inlet-to-outlet temperatures
Service: Trend inlet and outlet temperatures, pressures and differential pressure so gradual fouling is detected before the exchanger loses required duty. Inspect the plate-pack edges, frame, tightening bolts, connections and supports for leakage, corrosion, distortion and piping loads. When opened, check plates for deposits, pitting, erosion, cracks and deformation and verify correct plate sequence and gasket seating during reassembly. Use only cleaning methods compatible with the installed plate and gasket materials. Refer to the manufacturer documentation for the exact tightening dimension, allowable pressure, temperature and cleaning limits.
Spare Parts: Carry the exact gasket type used in the installed plate pack, selected spare plates where operationally justified, connection seals and associated strainer elements. Plate and gasket materials must be matched to the exact exchanger configuration and process fluids before ordering.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. T6-30P
T6-30P
Model number
T6-30P
Plate count (min)
10 plates
Plate count (max)
200 plates
Max flow rate
12.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
industrial, marine central cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
38 plates
Effective flow rate at duty point
12.0 m3/h
Configuration
30P configuration
Common Failures & Inspection Points
  • Plate-channel fouling or scaling caused by contaminated fluid can increase pressure drop and reduce heat-transfer performance
  • Aged, damaged or incorrectly seated gaskets can cause external leakage or mixing at the plate edge
  • Corrosion, erosion or cracking of a plate can cause internal cross-contamination indicated by unexpected fluid quality, tank level or pressure changes
  • Incorrect plate sequence or uneven tightening after maintenance can cause leakage, poor flow distribution or reduced thermal performance
  • Blocked strainers or restricted upstream piping can reduce flow and produce abnormal inlet-to-outlet temperatures
Service: Trend inlet and outlet temperatures, pressures and differential pressure so gradual fouling is detected before the exchanger loses required duty. Inspect the plate-pack edges, frame, tightening bolts, connections and supports for leakage, corrosion, distortion and piping loads. When opened, check plates for deposits, pitting, erosion, cracks and deformation and verify correct plate sequence and gasket seating during reassembly. Use only cleaning methods compatible with the installed plate and gasket materials. Refer to the manufacturer documentation for the exact tightening dimension, allowable pressure, temperature and cleaning limits.
Spare Parts: Carry the exact gasket type used in the installed plate pack, selected spare plates where operationally justified, connection seals and associated strainer elements. Plate and gasket materials must be matched to the exact exchanger configuration and process fluids before ordering.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. T6-60P
T6-60P
Model number
T6-60P
Plate count (min)
10 plates
Plate count (max)
200 plates
Max flow rate
22.8 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
industrial, marine central cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
67 plates
Effective flow rate at duty point
22.8 m3/h
Configuration
60P configuration
Common Failures & Inspection Points
  • Plate-channel fouling or scaling caused by contaminated fluid can increase pressure drop and reduce heat-transfer performance
  • Aged, damaged or incorrectly seated gaskets can cause external leakage or mixing at the plate edge
  • Corrosion, erosion or cracking of a plate can cause internal cross-contamination indicated by unexpected fluid quality, tank level or pressure changes
  • Incorrect plate sequence or uneven tightening after maintenance can cause leakage, poor flow distribution or reduced thermal performance
  • Blocked strainers or restricted upstream piping can reduce flow and produce abnormal inlet-to-outlet temperatures
Service: Trend inlet and outlet temperatures, pressures and differential pressure so gradual fouling is detected before the exchanger loses required duty. Inspect the plate-pack edges, frame, tightening bolts, connections and supports for leakage, corrosion, distortion and piping loads. When opened, check plates for deposits, pitting, erosion, cracks and deformation and verify correct plate sequence and gasket seating during reassembly. Use only cleaning methods compatible with the installed plate and gasket materials. Refer to the manufacturer documentation for the exact tightening dimension, allowable pressure, temperature and cleaning limits.
Spare Parts: Carry the exact gasket type used in the installed plate pack, selected spare plates where operationally justified, connection seals and associated strainer elements. Plate and gasket materials must be matched to the exact exchanger configuration and process fluids before ordering.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. T6-90P
T6-90P
Model number
T6-90P
Plate count (min)
10 plates
Plate count (max)
200 plates
Max flow rate
33.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
industrial, marine central cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
95 plates
Effective flow rate at duty point
33.0 m3/h
Configuration
90P configuration
Common Failures & Inspection Points
  • Plate-channel fouling or scaling caused by contaminated fluid can increase pressure drop and reduce heat-transfer performance
  • Aged, damaged or incorrectly seated gaskets can cause external leakage or mixing at the plate edge
  • Corrosion, erosion or cracking of a plate can cause internal cross-contamination indicated by unexpected fluid quality, tank level or pressure changes
  • Incorrect plate sequence or uneven tightening after maintenance can cause leakage, poor flow distribution or reduced thermal performance
  • Blocked strainers or restricted upstream piping can reduce flow and produce abnormal inlet-to-outlet temperatures
Service: Trend inlet and outlet temperatures, pressures and differential pressure so gradual fouling is detected before the exchanger loses required duty. Inspect the plate-pack edges, frame, tightening bolts, connections and supports for leakage, corrosion, distortion and piping loads. When opened, check plates for deposits, pitting, erosion, cracks and deformation and verify correct plate sequence and gasket seating during reassembly. Use only cleaning methods compatible with the installed plate and gasket materials. Refer to the manufacturer documentation for the exact tightening dimension, allowable pressure, temperature and cleaning limits.
Spare Parts: Carry the exact gasket type used in the installed plate pack, selected spare plates where operationally justified, connection seals and associated strainer elements. Plate and gasket materials must be matched to the exact exchanger configuration and process fluids before ordering.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. T6-120P
T6-120P
Model number
T6-120P
Plate count (min)
10 plates
Plate count (max)
200 plates
Max flow rate
42.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
industrial, marine central cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
124 plates
Effective flow rate at duty point
42.0 m3/h
Configuration
120P configuration
Common Failures & Inspection Points
  • Plate-channel fouling or scaling caused by contaminated fluid can increase pressure drop and reduce heat-transfer performance
  • Aged, damaged or incorrectly seated gaskets can cause external leakage or mixing at the plate edge
  • Corrosion, erosion or cracking of a plate can cause internal cross-contamination indicated by unexpected fluid quality, tank level or pressure changes
  • Incorrect plate sequence or uneven tightening after maintenance can cause leakage, poor flow distribution or reduced thermal performance
  • Blocked strainers or restricted upstream piping can reduce flow and produce abnormal inlet-to-outlet temperatures
Service: Trend inlet and outlet temperatures, pressures and differential pressure so gradual fouling is detected before the exchanger loses required duty. Inspect the plate-pack edges, frame, tightening bolts, connections and supports for leakage, corrosion, distortion and piping loads. When opened, check plates for deposits, pitting, erosion, cracks and deformation and verify correct plate sequence and gasket seating during reassembly. Use only cleaning methods compatible with the installed plate and gasket materials. Refer to the manufacturer documentation for the exact tightening dimension, allowable pressure, temperature and cleaning limits.
Spare Parts: Carry the exact gasket type used in the installed plate pack, selected spare plates where operationally justified, connection seals and associated strainer elements. Plate and gasket materials must be matched to the exact exchanger configuration and process fluids before ordering.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
T6-150P
Model number
T6-150P
Plate count (min)
10 plates
Plate count (max)
200 plates
Max flow rate
51.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
industrial, marine central cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
152 plates
Effective flow rate at duty point
51.0 m3/h
Configuration
150P configuration
Common Failures & Inspection Points
  • Plate-channel fouling or scaling caused by contaminated fluid can increase pressure drop and reduce heat-transfer performance
  • Aged, damaged or incorrectly seated gaskets can cause external leakage or mixing at the plate edge
  • Corrosion, erosion or cracking of a plate can cause internal cross-contamination indicated by unexpected fluid quality, tank level or pressure changes
  • Incorrect plate sequence or uneven tightening after maintenance can cause leakage, poor flow distribution or reduced thermal performance
  • Blocked strainers or restricted upstream piping can reduce flow and produce abnormal inlet-to-outlet temperatures
Service: Trend inlet and outlet temperatures, pressures and differential pressure so gradual fouling is detected before the exchanger loses required duty. Inspect the plate-pack edges, frame, tightening bolts, connections and supports for leakage, corrosion, distortion and piping loads. When opened, check plates for deposits, pitting, erosion, cracks and deformation and verify correct plate sequence and gasket seating during reassembly. Use only cleaning methods compatible with the installed plate and gasket materials. Refer to the manufacturer documentation for the exact tightening dimension, allowable pressure, temperature and cleaning limits.
Spare Parts: Carry the exact gasket type used in the installed plate pack, selected spare plates where operationally justified, connection seals and associated strainer elements. Plate and gasket materials must be matched to the exact exchanger configuration and process fluids before ordering.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
T6-180P
Model number
T6-180P
Plate count (min)
10 plates
Plate count (max)
200 plates
Max flow rate
57.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
industrial, marine central cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
181 plates
Effective flow rate at duty point
57.0 m3/h
Configuration
180P configuration
Common Failures & Inspection Points
  • Plate-channel fouling or scaling caused by contaminated fluid can increase pressure drop and reduce heat-transfer performance
  • Aged, damaged or incorrectly seated gaskets can cause external leakage or mixing at the plate edge
  • Corrosion, erosion or cracking of a plate can cause internal cross-contamination indicated by unexpected fluid quality, tank level or pressure changes
  • Incorrect plate sequence or uneven tightening after maintenance can cause leakage, poor flow distribution or reduced thermal performance
  • Blocked strainers or restricted upstream piping can reduce flow and produce abnormal inlet-to-outlet temperatures
Service: Trend inlet and outlet temperatures, pressures and differential pressure so gradual fouling is detected before the exchanger loses required duty. Inspect the plate-pack edges, frame, tightening bolts, connections and supports for leakage, corrosion, distortion and piping loads. When opened, check plates for deposits, pitting, erosion, cracks and deformation and verify correct plate sequence and gasket seating during reassembly. Use only cleaning methods compatible with the installed plate and gasket materials. Refer to the manufacturer documentation for the exact tightening dimension, allowable pressure, temperature and cleaning limits.
Spare Parts: Carry the exact gasket type used in the installed plate pack, selected spare plates where operationally justified, connection seals and associated strainer elements. Plate and gasket materials must be matched to the exact exchanger configuration and process fluids before ordering.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. T6-MAX
T6-MAX
Model number
T6-MAX
Plate count (min)
10 plates
Plate count (max)
200 plates
Max flow rate
60.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
industrial, marine central cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
200 plates
Effective flow rate at duty point
60.0 m3/h
Configuration
MAX configuration
Common Failures & Inspection Points
  • Plate-channel fouling or scaling caused by contaminated fluid can increase pressure drop and reduce heat-transfer performance
  • Aged, damaged or incorrectly seated gaskets can cause external leakage or mixing at the plate edge
  • Corrosion, erosion or cracking of a plate can cause internal cross-contamination indicated by unexpected fluid quality, tank level or pressure changes
  • Incorrect plate sequence or uneven tightening after maintenance can cause leakage, poor flow distribution or reduced thermal performance
  • Blocked strainers or restricted upstream piping can reduce flow and produce abnormal inlet-to-outlet temperatures
Service: Trend inlet and outlet temperatures, pressures and differential pressure so gradual fouling is detected before the exchanger loses required duty. Inspect the plate-pack edges, frame, tightening bolts, connections and supports for leakage, corrosion, distortion and piping loads. When opened, check plates for deposits, pitting, erosion, cracks and deformation and verify correct plate sequence and gasket seating during reassembly. Use only cleaning methods compatible with the installed plate and gasket materials. Refer to the manufacturer documentation for the exact tightening dimension, allowable pressure, temperature and cleaning limits.
Spare Parts: Carry the exact gasket type used in the installed plate pack, selected spare plates where operationally justified, connection seals and associated strainer elements. Plate and gasket materials must be matched to the exact exchanger configuration and process fluids before ordering.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
T8-30P
Model number
T8-30P
Plate count (min)
10 plates
Plate count (max)
250 plates
Max flow rate
18.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
industrial heat recovery
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
46 plates
Effective flow rate at duty point
18.0 m3/h
Configuration
30P configuration
Common Failures & Inspection Points
  • Plate-channel fouling or scaling caused by contaminated fluid can increase pressure drop and reduce heat-transfer performance
  • Aged, damaged or incorrectly seated gaskets can cause external leakage or mixing at the plate edge
  • Corrosion, erosion or cracking of a plate can cause internal cross-contamination indicated by unexpected fluid quality, tank level or pressure changes
  • Incorrect plate sequence or uneven tightening after maintenance can cause leakage, poor flow distribution or reduced thermal performance
  • Blocked strainers or restricted upstream piping can reduce flow and produce abnormal inlet-to-outlet temperatures
Service: Trend inlet and outlet temperatures, pressures and differential pressure so gradual fouling is detected before the exchanger loses required duty. Inspect the plate-pack edges, frame, tightening bolts, connections and supports for leakage, corrosion, distortion and piping loads. When opened, check plates for deposits, pitting, erosion, cracks and deformation and verify correct plate sequence and gasket seating during reassembly. Use only cleaning methods compatible with the installed plate and gasket materials. Refer to the manufacturer documentation for the exact tightening dimension, allowable pressure, temperature and cleaning limits.
Spare Parts: Carry the exact gasket type used in the installed plate pack, selected spare plates where operationally justified, connection seals and associated strainer elements. Plate and gasket materials must be matched to the exact exchanger configuration and process fluids before ordering.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
T8-60P
Model number
T8-60P
Plate count (min)
10 plates
Plate count (max)
250 plates
Max flow rate
34.2 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
industrial heat recovery
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
82 plates
Effective flow rate at duty point
34.2 m3/h
Configuration
60P configuration
Common Failures & Inspection Points
  • Plate-channel fouling or scaling caused by contaminated fluid can increase pressure drop and reduce heat-transfer performance
  • Aged, damaged or incorrectly seated gaskets can cause external leakage or mixing at the plate edge
  • Corrosion, erosion or cracking of a plate can cause internal cross-contamination indicated by unexpected fluid quality, tank level or pressure changes
  • Incorrect plate sequence or uneven tightening after maintenance can cause leakage, poor flow distribution or reduced thermal performance
  • Blocked strainers or restricted upstream piping can reduce flow and produce abnormal inlet-to-outlet temperatures
Service: Trend inlet and outlet temperatures, pressures and differential pressure so gradual fouling is detected before the exchanger loses required duty. Inspect the plate-pack edges, frame, tightening bolts, connections and supports for leakage, corrosion, distortion and piping loads. When opened, check plates for deposits, pitting, erosion, cracks and deformation and verify correct plate sequence and gasket seating during reassembly. Use only cleaning methods compatible with the installed plate and gasket materials. Refer to the manufacturer documentation for the exact tightening dimension, allowable pressure, temperature and cleaning limits.
Spare Parts: Carry the exact gasket type used in the installed plate pack, selected spare plates where operationally justified, connection seals and associated strainer elements. Plate and gasket materials must be matched to the exact exchanger configuration and process fluids before ordering.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
T8-90P
Model number
T8-90P
Plate count (min)
10 plates
Plate count (max)
250 plates
Max flow rate
49.5 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
industrial heat recovery
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
118 plates
Effective flow rate at duty point
49.5 m3/h
Configuration
90P configuration
Common Failures & Inspection Points
  • Plate-channel fouling or scaling caused by contaminated fluid can increase pressure drop and reduce heat-transfer performance
  • Aged, damaged or incorrectly seated gaskets can cause external leakage or mixing at the plate edge
  • Corrosion, erosion or cracking of a plate can cause internal cross-contamination indicated by unexpected fluid quality, tank level or pressure changes
  • Incorrect plate sequence or uneven tightening after maintenance can cause leakage, poor flow distribution or reduced thermal performance
  • Blocked strainers or restricted upstream piping can reduce flow and produce abnormal inlet-to-outlet temperatures
Service: Trend inlet and outlet temperatures, pressures and differential pressure so gradual fouling is detected before the exchanger loses required duty. Inspect the plate-pack edges, frame, tightening bolts, connections and supports for leakage, corrosion, distortion and piping loads. When opened, check plates for deposits, pitting, erosion, cracks and deformation and verify correct plate sequence and gasket seating during reassembly. Use only cleaning methods compatible with the installed plate and gasket materials. Refer to the manufacturer documentation for the exact tightening dimension, allowable pressure, temperature and cleaning limits.
Spare Parts: Carry the exact gasket type used in the installed plate pack, selected spare plates where operationally justified, connection seals and associated strainer elements. Plate and gasket materials must be matched to the exact exchanger configuration and process fluids before ordering.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. T8-120P
T8-120P
Model number
T8-120P
Plate count (min)
10 plates
Plate count (max)
250 plates
Max flow rate
63.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
industrial heat recovery
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
154 plates
Effective flow rate at duty point
63.0 m3/h
Configuration
120P configuration
Common Failures & Inspection Points
  • Plate-channel fouling or scaling caused by contaminated fluid can increase pressure drop and reduce heat-transfer performance
  • Aged, damaged or incorrectly seated gaskets can cause external leakage or mixing at the plate edge
  • Corrosion, erosion or cracking of a plate can cause internal cross-contamination indicated by unexpected fluid quality, tank level or pressure changes
  • Incorrect plate sequence or uneven tightening after maintenance can cause leakage, poor flow distribution or reduced thermal performance
  • Blocked strainers or restricted upstream piping can reduce flow and produce abnormal inlet-to-outlet temperatures
Service: Trend inlet and outlet temperatures, pressures and differential pressure so gradual fouling is detected before the exchanger loses required duty. Inspect the plate-pack edges, frame, tightening bolts, connections and supports for leakage, corrosion, distortion and piping loads. When opened, check plates for deposits, pitting, erosion, cracks and deformation and verify correct plate sequence and gasket seating during reassembly. Use only cleaning methods compatible with the installed plate and gasket materials. Refer to the manufacturer documentation for the exact tightening dimension, allowable pressure, temperature and cleaning limits.
Spare Parts: Carry the exact gasket type used in the installed plate pack, selected spare plates where operationally justified, connection seals and associated strainer elements. Plate and gasket materials must be matched to the exact exchanger configuration and process fluids before ordering.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. T8-150P
T8-150P
Model number
T8-150P
Plate count (min)
10 plates
Plate count (max)
250 plates
Max flow rate
76.5 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
industrial heat recovery
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
190 plates
Effective flow rate at duty point
76.5 m3/h
Configuration
150P configuration
Common Failures & Inspection Points
  • Plate-channel fouling or scaling caused by contaminated fluid can increase pressure drop and reduce heat-transfer performance
  • Aged, damaged or incorrectly seated gaskets can cause external leakage or mixing at the plate edge
  • Corrosion, erosion or cracking of a plate can cause internal cross-contamination indicated by unexpected fluid quality, tank level or pressure changes
  • Incorrect plate sequence or uneven tightening after maintenance can cause leakage, poor flow distribution or reduced thermal performance
  • Blocked strainers or restricted upstream piping can reduce flow and produce abnormal inlet-to-outlet temperatures
Service: Trend inlet and outlet temperatures, pressures and differential pressure so gradual fouling is detected before the exchanger loses required duty. Inspect the plate-pack edges, frame, tightening bolts, connections and supports for leakage, corrosion, distortion and piping loads. When opened, check plates for deposits, pitting, erosion, cracks and deformation and verify correct plate sequence and gasket seating during reassembly. Use only cleaning methods compatible with the installed plate and gasket materials. Refer to the manufacturer documentation for the exact tightening dimension, allowable pressure, temperature and cleaning limits.
Spare Parts: Carry the exact gasket type used in the installed plate pack, selected spare plates where operationally justified, connection seals and associated strainer elements. Plate and gasket materials must be matched to the exact exchanger configuration and process fluids before ordering.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. T8-180P
T8-180P
Model number
T8-180P
Plate count (min)
10 plates
Plate count (max)
250 plates
Max flow rate
85.5 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
industrial heat recovery
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
226 plates
Effective flow rate at duty point
85.5 m3/h
Configuration
180P configuration
Common Failures & Inspection Points
  • Plate-channel fouling or scaling caused by contaminated fluid can increase pressure drop and reduce heat-transfer performance
  • Aged, damaged or incorrectly seated gaskets can cause external leakage or mixing at the plate edge
  • Corrosion, erosion or cracking of a plate can cause internal cross-contamination indicated by unexpected fluid quality, tank level or pressure changes
  • Incorrect plate sequence or uneven tightening after maintenance can cause leakage, poor flow distribution or reduced thermal performance
  • Blocked strainers or restricted upstream piping can reduce flow and produce abnormal inlet-to-outlet temperatures
Service: Trend inlet and outlet temperatures, pressures and differential pressure so gradual fouling is detected before the exchanger loses required duty. Inspect the plate-pack edges, frame, tightening bolts, connections and supports for leakage, corrosion, distortion and piping loads. When opened, check plates for deposits, pitting, erosion, cracks and deformation and verify correct plate sequence and gasket seating during reassembly. Use only cleaning methods compatible with the installed plate and gasket materials. Refer to the manufacturer documentation for the exact tightening dimension, allowable pressure, temperature and cleaning limits.
Spare Parts: Carry the exact gasket type used in the installed plate pack, selected spare plates where operationally justified, connection seals and associated strainer elements. Plate and gasket materials must be matched to the exact exchanger configuration and process fluids before ordering.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. T8-MAX
T8-MAX
Model number
T8-MAX
Plate count (min)
10 plates
Plate count (max)
250 plates
Max flow rate
90.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
industrial heat recovery
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
250 plates
Effective flow rate at duty point
90.0 m3/h
Configuration
MAX configuration
Common Failures & Inspection Points
  • Plate-channel fouling or scaling caused by contaminated fluid can increase pressure drop and reduce heat-transfer performance
  • Aged, damaged or incorrectly seated gaskets can cause external leakage or mixing at the plate edge
  • Corrosion, erosion or cracking of a plate can cause internal cross-contamination indicated by unexpected fluid quality, tank level or pressure changes
  • Incorrect plate sequence or uneven tightening after maintenance can cause leakage, poor flow distribution or reduced thermal performance
  • Blocked strainers or restricted upstream piping can reduce flow and produce abnormal inlet-to-outlet temperatures
Service: Trend inlet and outlet temperatures, pressures and differential pressure so gradual fouling is detected before the exchanger loses required duty. Inspect the plate-pack edges, frame, tightening bolts, connections and supports for leakage, corrosion, distortion and piping loads. When opened, check plates for deposits, pitting, erosion, cracks and deformation and verify correct plate sequence and gasket seating during reassembly. Use only cleaning methods compatible with the installed plate and gasket materials. Refer to the manufacturer documentation for the exact tightening dimension, allowable pressure, temperature and cleaning limits.
Spare Parts: Carry the exact gasket type used in the installed plate pack, selected spare plates where operationally justified, connection seals and associated strainer elements. Plate and gasket materials must be matched to the exact exchanger configuration and process fluids before ordering.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
T10
Model number
T10
Plate count (min)
10 plates
Plate count (max)
300 plates
Max flow rate
150.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
industrial, marine LT/HT cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Common Failures & Inspection Points
  • Plate-channel fouling or scaling caused by contaminated fluid can increase pressure drop and reduce heat-transfer performance
  • Aged, damaged or incorrectly seated gaskets can cause external leakage or mixing at the plate edge
  • Corrosion, erosion or cracking of a plate can cause internal cross-contamination indicated by unexpected fluid quality, tank level or pressure changes
  • Incorrect plate sequence or uneven tightening after maintenance can cause leakage, poor flow distribution or reduced thermal performance
  • Blocked strainers or restricted upstream piping can reduce flow and produce abnormal inlet-to-outlet temperatures
Service: Trend inlet and outlet temperatures, pressures and differential pressure so gradual fouling is detected before the exchanger loses required duty. Inspect the plate-pack edges, frame, tightening bolts, connections and supports for leakage, corrosion, distortion and piping loads. When opened, check plates for deposits, pitting, erosion, cracks and deformation and verify correct plate sequence and gasket seating during reassembly. Use only cleaning methods compatible with the installed plate and gasket materials. Refer to the manufacturer documentation for the exact tightening dimension, allowable pressure, temperature and cleaning limits.
Spare Parts: Carry the exact gasket type used in the installed plate pack, selected spare plates where operationally justified, connection seals and associated strainer elements. Plate and gasket materials must be matched to the exact exchanger configuration and process fluids before ordering.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. T10-30P
T10-30P
Model number
T10-30P
Plate count (min)
10 plates
Plate count (max)
300 plates
Max flow rate
30.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
industrial, marine LT/HT cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
53 plates
Effective flow rate at duty point
30.0 m3/h
Configuration
30P configuration
Common Failures & Inspection Points
  • Plate-channel fouling or scaling caused by contaminated fluid can increase pressure drop and reduce heat-transfer performance
  • Aged, damaged or incorrectly seated gaskets can cause external leakage or mixing at the plate edge
  • Corrosion, erosion or cracking of a plate can cause internal cross-contamination indicated by unexpected fluid quality, tank level or pressure changes
  • Incorrect plate sequence or uneven tightening after maintenance can cause leakage, poor flow distribution or reduced thermal performance
  • Blocked strainers or restricted upstream piping can reduce flow and produce abnormal inlet-to-outlet temperatures
Service: Trend inlet and outlet temperatures, pressures and differential pressure so gradual fouling is detected before the exchanger loses required duty. Inspect the plate-pack edges, frame, tightening bolts, connections and supports for leakage, corrosion, distortion and piping loads. When opened, check plates for deposits, pitting, erosion, cracks and deformation and verify correct plate sequence and gasket seating during reassembly. Use only cleaning methods compatible with the installed plate and gasket materials. Refer to the manufacturer documentation for the exact tightening dimension, allowable pressure, temperature and cleaning limits.
Spare Parts: Carry the exact gasket type used in the installed plate pack, selected spare plates where operationally justified, connection seals and associated strainer elements. Plate and gasket materials must be matched to the exact exchanger configuration and process fluids before ordering.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. T10-60P
T10-60P
Model number
T10-60P
Plate count (min)
10 plates
Plate count (max)
300 plates
Max flow rate
57.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
industrial, marine LT/HT cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
97 plates
Effective flow rate at duty point
57.0 m3/h
Configuration
60P configuration
Common Failures & Inspection Points
  • Plate-channel fouling or scaling caused by contaminated fluid can increase pressure drop and reduce heat-transfer performance
  • Aged, damaged or incorrectly seated gaskets can cause external leakage or mixing at the plate edge
  • Corrosion, erosion or cracking of a plate can cause internal cross-contamination indicated by unexpected fluid quality, tank level or pressure changes
  • Incorrect plate sequence or uneven tightening after maintenance can cause leakage, poor flow distribution or reduced thermal performance
  • Blocked strainers or restricted upstream piping can reduce flow and produce abnormal inlet-to-outlet temperatures
Service: Trend inlet and outlet temperatures, pressures and differential pressure so gradual fouling is detected before the exchanger loses required duty. Inspect the plate-pack edges, frame, tightening bolts, connections and supports for leakage, corrosion, distortion and piping loads. When opened, check plates for deposits, pitting, erosion, cracks and deformation and verify correct plate sequence and gasket seating during reassembly. Use only cleaning methods compatible with the installed plate and gasket materials. Refer to the manufacturer documentation for the exact tightening dimension, allowable pressure, temperature and cleaning limits.
Spare Parts: Carry the exact gasket type used in the installed plate pack, selected spare plates where operationally justified, connection seals and associated strainer elements. Plate and gasket materials must be matched to the exact exchanger configuration and process fluids before ordering.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. T10-90P
T10-90P
Model number
T10-90P
Plate count (min)
10 plates
Plate count (max)
300 plates
Max flow rate
82.5 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
industrial, marine LT/HT cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
140 plates
Effective flow rate at duty point
82.5 m3/h
Configuration
90P configuration
Common Failures & Inspection Points
  • Plate-channel fouling or scaling caused by contaminated fluid can increase pressure drop and reduce heat-transfer performance
  • Aged, damaged or incorrectly seated gaskets can cause external leakage or mixing at the plate edge
  • Corrosion, erosion or cracking of a plate can cause internal cross-contamination indicated by unexpected fluid quality, tank level or pressure changes
  • Incorrect plate sequence or uneven tightening after maintenance can cause leakage, poor flow distribution or reduced thermal performance
  • Blocked strainers or restricted upstream piping can reduce flow and produce abnormal inlet-to-outlet temperatures
Service: Trend inlet and outlet temperatures, pressures and differential pressure so gradual fouling is detected before the exchanger loses required duty. Inspect the plate-pack edges, frame, tightening bolts, connections and supports for leakage, corrosion, distortion and piping loads. When opened, check plates for deposits, pitting, erosion, cracks and deformation and verify correct plate sequence and gasket seating during reassembly. Use only cleaning methods compatible with the installed plate and gasket materials. Refer to the manufacturer documentation for the exact tightening dimension, allowable pressure, temperature and cleaning limits.
Spare Parts: Carry the exact gasket type used in the installed plate pack, selected spare plates where operationally justified, connection seals and associated strainer elements. Plate and gasket materials must be matched to the exact exchanger configuration and process fluids before ordering.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
T10-120P
Model number
T10-120P
Plate count (min)
10 plates
Plate count (max)
300 plates
Max flow rate
105.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
industrial, marine LT/HT cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
184 plates
Effective flow rate at duty point
105.0 m3/h
Configuration
120P configuration
Common Failures & Inspection Points
  • Plate-channel fouling or scaling caused by contaminated fluid can increase pressure drop and reduce heat-transfer performance
  • Aged, damaged or incorrectly seated gaskets can cause external leakage or mixing at the plate edge
  • Corrosion, erosion or cracking of a plate can cause internal cross-contamination indicated by unexpected fluid quality, tank level or pressure changes
  • Incorrect plate sequence or uneven tightening after maintenance can cause leakage, poor flow distribution or reduced thermal performance
  • Blocked strainers or restricted upstream piping can reduce flow and produce abnormal inlet-to-outlet temperatures
Service: Trend inlet and outlet temperatures, pressures and differential pressure so gradual fouling is detected before the exchanger loses required duty. Inspect the plate-pack edges, frame, tightening bolts, connections and supports for leakage, corrosion, distortion and piping loads. When opened, check plates for deposits, pitting, erosion, cracks and deformation and verify correct plate sequence and gasket seating during reassembly. Use only cleaning methods compatible with the installed plate and gasket materials. Refer to the manufacturer documentation for the exact tightening dimension, allowable pressure, temperature and cleaning limits.
Spare Parts: Carry the exact gasket type used in the installed plate pack, selected spare plates where operationally justified, connection seals and associated strainer elements. Plate and gasket materials must be matched to the exact exchanger configuration and process fluids before ordering.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
T10-150P
Model number
T10-150P
Plate count (min)
10 plates
Plate count (max)
300 plates
Max flow rate
127.5 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
industrial, marine LT/HT cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
227 plates
Effective flow rate at duty point
127.5 m3/h
Configuration
150P configuration
Common Failures & Inspection Points
  • Plate-channel fouling or scaling caused by contaminated fluid can increase pressure drop and reduce heat-transfer performance
  • Aged, damaged or incorrectly seated gaskets can cause external leakage or mixing at the plate edge
  • Corrosion, erosion or cracking of a plate can cause internal cross-contamination indicated by unexpected fluid quality, tank level or pressure changes
  • Incorrect plate sequence or uneven tightening after maintenance can cause leakage, poor flow distribution or reduced thermal performance
  • Blocked strainers or restricted upstream piping can reduce flow and produce abnormal inlet-to-outlet temperatures
Service: Trend inlet and outlet temperatures, pressures and differential pressure so gradual fouling is detected before the exchanger loses required duty. Inspect the plate-pack edges, frame, tightening bolts, connections and supports for leakage, corrosion, distortion and piping loads. When opened, check plates for deposits, pitting, erosion, cracks and deformation and verify correct plate sequence and gasket seating during reassembly. Use only cleaning methods compatible with the installed plate and gasket materials. Refer to the manufacturer documentation for the exact tightening dimension, allowable pressure, temperature and cleaning limits.
Spare Parts: Carry the exact gasket type used in the installed plate pack, selected spare plates where operationally justified, connection seals and associated strainer elements. Plate and gasket materials must be matched to the exact exchanger configuration and process fluids before ordering.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. T10-180P
T10-180P
Model number
T10-180P
Plate count (min)
10 plates
Plate count (max)
300 plates
Max flow rate
142.5 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
industrial, marine LT/HT cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
271 plates
Effective flow rate at duty point
142.5 m3/h
Configuration
180P configuration
Common Failures & Inspection Points
  • Plate-channel fouling or scaling caused by contaminated fluid can increase pressure drop and reduce heat-transfer performance
  • Aged, damaged or incorrectly seated gaskets can cause external leakage or mixing at the plate edge
  • Corrosion, erosion or cracking of a plate can cause internal cross-contamination indicated by unexpected fluid quality, tank level or pressure changes
  • Incorrect plate sequence or uneven tightening after maintenance can cause leakage, poor flow distribution or reduced thermal performance
  • Blocked strainers or restricted upstream piping can reduce flow and produce abnormal inlet-to-outlet temperatures
Service: Trend inlet and outlet temperatures, pressures and differential pressure so gradual fouling is detected before the exchanger loses required duty. Inspect the plate-pack edges, frame, tightening bolts, connections and supports for leakage, corrosion, distortion and piping loads. When opened, check plates for deposits, pitting, erosion, cracks and deformation and verify correct plate sequence and gasket seating during reassembly. Use only cleaning methods compatible with the installed plate and gasket materials. Refer to the manufacturer documentation for the exact tightening dimension, allowable pressure, temperature and cleaning limits.
Spare Parts: Carry the exact gasket type used in the installed plate pack, selected spare plates where operationally justified, connection seals and associated strainer elements. Plate and gasket materials must be matched to the exact exchanger configuration and process fluids before ordering.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
T10-MAX
Model number
T10-MAX
Plate count (min)
10 plates
Plate count (max)
300 plates
Max flow rate
150.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
industrial, marine LT/HT cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
300 plates
Effective flow rate at duty point
150.0 m3/h
Configuration
MAX configuration
Common Failures & Inspection Points
  • Plate-channel fouling or scaling caused by contaminated fluid can increase pressure drop and reduce heat-transfer performance
  • Aged, damaged or incorrectly seated gaskets can cause external leakage or mixing at the plate edge
  • Corrosion, erosion or cracking of a plate can cause internal cross-contamination indicated by unexpected fluid quality, tank level or pressure changes
  • Incorrect plate sequence or uneven tightening after maintenance can cause leakage, poor flow distribution or reduced thermal performance
  • Blocked strainers or restricted upstream piping can reduce flow and produce abnormal inlet-to-outlet temperatures
Service: Trend inlet and outlet temperatures, pressures and differential pressure so gradual fouling is detected before the exchanger loses required duty. Inspect the plate-pack edges, frame, tightening bolts, connections and supports for leakage, corrosion, distortion and piping loads. When opened, check plates for deposits, pitting, erosion, cracks and deformation and verify correct plate sequence and gasket seating during reassembly. Use only cleaning methods compatible with the installed plate and gasket materials. Refer to the manufacturer documentation for the exact tightening dimension, allowable pressure, temperature and cleaning limits.
Spare Parts: Carry the exact gasket type used in the installed plate pack, selected spare plates where operationally justified, connection seals and associated strainer elements. Plate and gasket materials must be matched to the exact exchanger configuration and process fluids before ordering.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
T15
Model number
T15
Plate count (min)
16 plates
Plate count (max)
350 plates
Max flow rate
250.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine engine jacket cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Common Failures & Inspection Points
  • Plate-channel fouling or scaling caused by contaminated fluid can increase pressure drop and reduce heat-transfer performance
  • Aged, damaged or incorrectly seated gaskets can cause external leakage or mixing at the plate edge
  • Corrosion, erosion or cracking of a plate can cause internal cross-contamination indicated by unexpected fluid quality, tank level or pressure changes
  • Incorrect plate sequence or uneven tightening after maintenance can cause leakage, poor flow distribution or reduced thermal performance
  • Blocked strainers or restricted upstream piping can reduce flow and produce abnormal inlet-to-outlet temperatures
Service: Trend inlet and outlet temperatures, pressures and differential pressure so gradual fouling is detected before the exchanger loses required duty. Inspect the plate-pack edges, frame, tightening bolts, connections and supports for leakage, corrosion, distortion and piping loads. When opened, check plates for deposits, pitting, erosion, cracks and deformation and verify correct plate sequence and gasket seating during reassembly. Use only cleaning methods compatible with the installed plate and gasket materials. Refer to the manufacturer documentation for the exact tightening dimension, allowable pressure, temperature and cleaning limits.
Spare Parts: Carry the exact gasket type used in the installed plate pack, selected spare plates where operationally justified, connection seals and associated strainer elements. Plate and gasket materials must be matched to the exact exchanger configuration and process fluids before ordering.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. T15-30P
T15-30P
Model number
T15-30P
Plate count (min)
16 plates
Plate count (max)
350 plates
Max flow rate
50.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine engine jacket cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
66 plates
Effective flow rate at duty point
50.0 m3/h
Configuration
30P configuration
Common Failures & Inspection Points
  • Plate-channel fouling or scaling caused by contaminated fluid can increase pressure drop and reduce heat-transfer performance
  • Aged, damaged or incorrectly seated gaskets can cause external leakage or mixing at the plate edge
  • Corrosion, erosion or cracking of a plate can cause internal cross-contamination indicated by unexpected fluid quality, tank level or pressure changes
  • Incorrect plate sequence or uneven tightening after maintenance can cause leakage, poor flow distribution or reduced thermal performance
  • Blocked strainers or restricted upstream piping can reduce flow and produce abnormal inlet-to-outlet temperatures
Service: Trend inlet and outlet temperatures, pressures and differential pressure so gradual fouling is detected before the exchanger loses required duty. Inspect the plate-pack edges, frame, tightening bolts, connections and supports for leakage, corrosion, distortion and piping loads. When opened, check plates for deposits, pitting, erosion, cracks and deformation and verify correct plate sequence and gasket seating during reassembly. Use only cleaning methods compatible with the installed plate and gasket materials. Refer to the manufacturer documentation for the exact tightening dimension, allowable pressure, temperature and cleaning limits.
Spare Parts: Carry the exact gasket type used in the installed plate pack, selected spare plates where operationally justified, connection seals and associated strainer elements. Plate and gasket materials must be matched to the exact exchanger configuration and process fluids before ordering.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
T15-60P
Model number
T15-60P
Plate count (min)
16 plates
Plate count (max)
350 plates
Max flow rate
95.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine engine jacket cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
116 plates
Effective flow rate at duty point
95.0 m3/h
Configuration
60P configuration
Common Failures & Inspection Points
  • Plate-channel fouling or scaling caused by contaminated fluid can increase pressure drop and reduce heat-transfer performance
  • Aged, damaged or incorrectly seated gaskets can cause external leakage or mixing at the plate edge
  • Corrosion, erosion or cracking of a plate can cause internal cross-contamination indicated by unexpected fluid quality, tank level or pressure changes
  • Incorrect plate sequence or uneven tightening after maintenance can cause leakage, poor flow distribution or reduced thermal performance
  • Blocked strainers or restricted upstream piping can reduce flow and produce abnormal inlet-to-outlet temperatures
Service: Trend inlet and outlet temperatures, pressures and differential pressure so gradual fouling is detected before the exchanger loses required duty. Inspect the plate-pack edges, frame, tightening bolts, connections and supports for leakage, corrosion, distortion and piping loads. When opened, check plates for deposits, pitting, erosion, cracks and deformation and verify correct plate sequence and gasket seating during reassembly. Use only cleaning methods compatible with the installed plate and gasket materials. Refer to the manufacturer documentation for the exact tightening dimension, allowable pressure, temperature and cleaning limits.
Spare Parts: Carry the exact gasket type used in the installed plate pack, selected spare plates where operationally justified, connection seals and associated strainer elements. Plate and gasket materials must be matched to the exact exchanger configuration and process fluids before ordering.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. T15-90P
T15-90P
Model number
T15-90P
Plate count (min)
16 plates
Plate count (max)
350 plates
Max flow rate
137.5 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine engine jacket cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
166 plates
Effective flow rate at duty point
137.5 m3/h
Configuration
90P configuration
Common Failures & Inspection Points
  • Plate-channel fouling or scaling caused by contaminated fluid can increase pressure drop and reduce heat-transfer performance
  • Aged, damaged or incorrectly seated gaskets can cause external leakage or mixing at the plate edge
  • Corrosion, erosion or cracking of a plate can cause internal cross-contamination indicated by unexpected fluid quality, tank level or pressure changes
  • Incorrect plate sequence or uneven tightening after maintenance can cause leakage, poor flow distribution or reduced thermal performance
  • Blocked strainers or restricted upstream piping can reduce flow and produce abnormal inlet-to-outlet temperatures
Service: Trend inlet and outlet temperatures, pressures and differential pressure so gradual fouling is detected before the exchanger loses required duty. Inspect the plate-pack edges, frame, tightening bolts, connections and supports for leakage, corrosion, distortion and piping loads. When opened, check plates for deposits, pitting, erosion, cracks and deformation and verify correct plate sequence and gasket seating during reassembly. Use only cleaning methods compatible with the installed plate and gasket materials. Refer to the manufacturer documentation for the exact tightening dimension, allowable pressure, temperature and cleaning limits.
Spare Parts: Carry the exact gasket type used in the installed plate pack, selected spare plates where operationally justified, connection seals and associated strainer elements. Plate and gasket materials must be matched to the exact exchanger configuration and process fluids before ordering.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. T15-120P
T15-120P
Model number
T15-120P
Plate count (min)
16 plates
Plate count (max)
350 plates
Max flow rate
175.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine engine jacket cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
216 plates
Effective flow rate at duty point
175.0 m3/h
Configuration
120P configuration
Common Failures & Inspection Points
  • Plate-channel fouling or scaling caused by contaminated fluid can increase pressure drop and reduce heat-transfer performance
  • Aged, damaged or incorrectly seated gaskets can cause external leakage or mixing at the plate edge
  • Corrosion, erosion or cracking of a plate can cause internal cross-contamination indicated by unexpected fluid quality, tank level or pressure changes
  • Incorrect plate sequence or uneven tightening after maintenance can cause leakage, poor flow distribution or reduced thermal performance
  • Blocked strainers or restricted upstream piping can reduce flow and produce abnormal inlet-to-outlet temperatures
Service: Trend inlet and outlet temperatures, pressures and differential pressure so gradual fouling is detected before the exchanger loses required duty. Inspect the plate-pack edges, frame, tightening bolts, connections and supports for leakage, corrosion, distortion and piping loads. When opened, check plates for deposits, pitting, erosion, cracks and deformation and verify correct plate sequence and gasket seating during reassembly. Use only cleaning methods compatible with the installed plate and gasket materials. Refer to the manufacturer documentation for the exact tightening dimension, allowable pressure, temperature and cleaning limits.
Spare Parts: Carry the exact gasket type used in the installed plate pack, selected spare plates where operationally justified, connection seals and associated strainer elements. Plate and gasket materials must be matched to the exact exchanger configuration and process fluids before ordering.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
T15-150P
Model number
T15-150P
Plate count (min)
16 plates
Plate count (max)
350 plates
Max flow rate
212.5 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine engine jacket cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
266 plates
Effective flow rate at duty point
212.5 m3/h
Configuration
150P configuration
Common Failures & Inspection Points
  • Plate-channel fouling or scaling caused by contaminated fluid can increase pressure drop and reduce heat-transfer performance
  • Aged, damaged or incorrectly seated gaskets can cause external leakage or mixing at the plate edge
  • Corrosion, erosion or cracking of a plate can cause internal cross-contamination indicated by unexpected fluid quality, tank level or pressure changes
  • Incorrect plate sequence or uneven tightening after maintenance can cause leakage, poor flow distribution or reduced thermal performance
  • Blocked strainers or restricted upstream piping can reduce flow and produce abnormal inlet-to-outlet temperatures
Service: Trend inlet and outlet temperatures, pressures and differential pressure so gradual fouling is detected before the exchanger loses required duty. Inspect the plate-pack edges, frame, tightening bolts, connections and supports for leakage, corrosion, distortion and piping loads. When opened, check plates for deposits, pitting, erosion, cracks and deformation and verify correct plate sequence and gasket seating during reassembly. Use only cleaning methods compatible with the installed plate and gasket materials. Refer to the manufacturer documentation for the exact tightening dimension, allowable pressure, temperature and cleaning limits.
Spare Parts: Carry the exact gasket type used in the installed plate pack, selected spare plates where operationally justified, connection seals and associated strainer elements. Plate and gasket materials must be matched to the exact exchanger configuration and process fluids before ordering.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. T15-180P
T15-180P
Model number
T15-180P
Plate count (min)
16 plates
Plate count (max)
350 plates
Max flow rate
237.5 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine engine jacket cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
316 plates
Effective flow rate at duty point
237.5 m3/h
Configuration
180P configuration
Common Failures & Inspection Points
  • Plate-channel fouling or scaling caused by contaminated fluid can increase pressure drop and reduce heat-transfer performance
  • Aged, damaged or incorrectly seated gaskets can cause external leakage or mixing at the plate edge
  • Corrosion, erosion or cracking of a plate can cause internal cross-contamination indicated by unexpected fluid quality, tank level or pressure changes
  • Incorrect plate sequence or uneven tightening after maintenance can cause leakage, poor flow distribution or reduced thermal performance
  • Blocked strainers or restricted upstream piping can reduce flow and produce abnormal inlet-to-outlet temperatures
Service: Trend inlet and outlet temperatures, pressures and differential pressure so gradual fouling is detected before the exchanger loses required duty. Inspect the plate-pack edges, frame, tightening bolts, connections and supports for leakage, corrosion, distortion and piping loads. When opened, check plates for deposits, pitting, erosion, cracks and deformation and verify correct plate sequence and gasket seating during reassembly. Use only cleaning methods compatible with the installed plate and gasket materials. Refer to the manufacturer documentation for the exact tightening dimension, allowable pressure, temperature and cleaning limits.
Spare Parts: Carry the exact gasket type used in the installed plate pack, selected spare plates where operationally justified, connection seals and associated strainer elements. Plate and gasket materials must be matched to the exact exchanger configuration and process fluids before ordering.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. T15-MAX
T15-MAX
Model number
T15-MAX
Plate count (min)
16 plates
Plate count (max)
350 plates
Max flow rate
250.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine engine jacket cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
350 plates
Effective flow rate at duty point
250.0 m3/h
Configuration
MAX configuration
Common Failures & Inspection Points
  • Plate-channel fouling or scaling caused by contaminated fluid can increase pressure drop and reduce heat-transfer performance
  • Aged, damaged or incorrectly seated gaskets can cause external leakage or mixing at the plate edge
  • Corrosion, erosion or cracking of a plate can cause internal cross-contamination indicated by unexpected fluid quality, tank level or pressure changes
  • Incorrect plate sequence or uneven tightening after maintenance can cause leakage, poor flow distribution or reduced thermal performance
  • Blocked strainers or restricted upstream piping can reduce flow and produce abnormal inlet-to-outlet temperatures
Service: Trend inlet and outlet temperatures, pressures and differential pressure so gradual fouling is detected before the exchanger loses required duty. Inspect the plate-pack edges, frame, tightening bolts, connections and supports for leakage, corrosion, distortion and piping loads. When opened, check plates for deposits, pitting, erosion, cracks and deformation and verify correct plate sequence and gasket seating during reassembly. Use only cleaning methods compatible with the installed plate and gasket materials. Refer to the manufacturer documentation for the exact tightening dimension, allowable pressure, temperature and cleaning limits.
Spare Parts: Carry the exact gasket type used in the installed plate pack, selected spare plates where operationally justified, connection seals and associated strainer elements. Plate and gasket materials must be matched to the exact exchanger configuration and process fluids before ordering.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. T20
T20
Model number
T20
Plate count (min)
20 plates
Plate count (max)
400 plates
Max flow rate
380.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine main cooling water
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Common Failures & Inspection Points
  • Plate-channel fouling or scaling caused by contaminated fluid can increase pressure drop and reduce heat-transfer performance
  • Aged, damaged or incorrectly seated gaskets can cause external leakage or mixing at the plate edge
  • Corrosion, erosion or cracking of a plate can cause internal cross-contamination indicated by unexpected fluid quality, tank level or pressure changes
  • Incorrect plate sequence or uneven tightening after maintenance can cause leakage, poor flow distribution or reduced thermal performance
  • Blocked strainers or restricted upstream piping can reduce flow and produce abnormal inlet-to-outlet temperatures
Service: Trend inlet and outlet temperatures, pressures and differential pressure so gradual fouling is detected before the exchanger loses required duty. Inspect the plate-pack edges, frame, tightening bolts, connections and supports for leakage, corrosion, distortion and piping loads. When opened, check plates for deposits, pitting, erosion, cracks and deformation and verify correct plate sequence and gasket seating during reassembly. Use only cleaning methods compatible with the installed plate and gasket materials. Refer to the manufacturer documentation for the exact tightening dimension, allowable pressure, temperature and cleaning limits.
Spare Parts: Carry the exact gasket type used in the installed plate pack, selected spare plates where operationally justified, connection seals and associated strainer elements. Plate and gasket materials must be matched to the exact exchanger configuration and process fluids before ordering.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. T20-30P
T20-30P
Model number
T20-30P
Plate count (min)
20 plates
Plate count (max)
400 plates
Max flow rate
76.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine main cooling water
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
77 plates
Effective flow rate at duty point
76.0 m3/h
Configuration
30P configuration
Common Failures & Inspection Points
  • Plate-channel fouling or scaling caused by contaminated fluid can increase pressure drop and reduce heat-transfer performance
  • Aged, damaged or incorrectly seated gaskets can cause external leakage or mixing at the plate edge
  • Corrosion, erosion or cracking of a plate can cause internal cross-contamination indicated by unexpected fluid quality, tank level or pressure changes
  • Incorrect plate sequence or uneven tightening after maintenance can cause leakage, poor flow distribution or reduced thermal performance
  • Blocked strainers or restricted upstream piping can reduce flow and produce abnormal inlet-to-outlet temperatures
Service: Trend inlet and outlet temperatures, pressures and differential pressure so gradual fouling is detected before the exchanger loses required duty. Inspect the plate-pack edges, frame, tightening bolts, connections and supports for leakage, corrosion, distortion and piping loads. When opened, check plates for deposits, pitting, erosion, cracks and deformation and verify correct plate sequence and gasket seating during reassembly. Use only cleaning methods compatible with the installed plate and gasket materials. Refer to the manufacturer documentation for the exact tightening dimension, allowable pressure, temperature and cleaning limits.
Spare Parts: Carry the exact gasket type used in the installed plate pack, selected spare plates where operationally justified, connection seals and associated strainer elements. Plate and gasket materials must be matched to the exact exchanger configuration and process fluids before ordering.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. T20-60P
T20-60P
Model number
T20-60P
Plate count (min)
20 plates
Plate count (max)
400 plates
Max flow rate
144.4 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine main cooling water
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
134 plates
Effective flow rate at duty point
144.4 m3/h
Configuration
60P configuration
Common Failures & Inspection Points
  • Plate-channel fouling or scaling caused by contaminated fluid can increase pressure drop and reduce heat-transfer performance
  • Aged, damaged or incorrectly seated gaskets can cause external leakage or mixing at the plate edge
  • Corrosion, erosion or cracking of a plate can cause internal cross-contamination indicated by unexpected fluid quality, tank level or pressure changes
  • Incorrect plate sequence or uneven tightening after maintenance can cause leakage, poor flow distribution or reduced thermal performance
  • Blocked strainers or restricted upstream piping can reduce flow and produce abnormal inlet-to-outlet temperatures
Service: Trend inlet and outlet temperatures, pressures and differential pressure so gradual fouling is detected before the exchanger loses required duty. Inspect the plate-pack edges, frame, tightening bolts, connections and supports for leakage, corrosion, distortion and piping loads. When opened, check plates for deposits, pitting, erosion, cracks and deformation and verify correct plate sequence and gasket seating during reassembly. Use only cleaning methods compatible with the installed plate and gasket materials. Refer to the manufacturer documentation for the exact tightening dimension, allowable pressure, temperature and cleaning limits.
Spare Parts: Carry the exact gasket type used in the installed plate pack, selected spare plates where operationally justified, connection seals and associated strainer elements. Plate and gasket materials must be matched to the exact exchanger configuration and process fluids before ordering.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. T20-90P
T20-90P
Model number
T20-90P
Plate count (min)
20 plates
Plate count (max)
400 plates
Max flow rate
209.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine main cooling water
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
191 plates
Effective flow rate at duty point
209.0 m3/h
Configuration
90P configuration
Common Failures & Inspection Points
  • Plate-channel fouling or scaling caused by contaminated fluid can increase pressure drop and reduce heat-transfer performance
  • Aged, damaged or incorrectly seated gaskets can cause external leakage or mixing at the plate edge
  • Corrosion, erosion or cracking of a plate can cause internal cross-contamination indicated by unexpected fluid quality, tank level or pressure changes
  • Incorrect plate sequence or uneven tightening after maintenance can cause leakage, poor flow distribution or reduced thermal performance
  • Blocked strainers or restricted upstream piping can reduce flow and produce abnormal inlet-to-outlet temperatures
Service: Trend inlet and outlet temperatures, pressures and differential pressure so gradual fouling is detected before the exchanger loses required duty. Inspect the plate-pack edges, frame, tightening bolts, connections and supports for leakage, corrosion, distortion and piping loads. When opened, check plates for deposits, pitting, erosion, cracks and deformation and verify correct plate sequence and gasket seating during reassembly. Use only cleaning methods compatible with the installed plate and gasket materials. Refer to the manufacturer documentation for the exact tightening dimension, allowable pressure, temperature and cleaning limits.
Spare Parts: Carry the exact gasket type used in the installed plate pack, selected spare plates where operationally justified, connection seals and associated strainer elements. Plate and gasket materials must be matched to the exact exchanger configuration and process fluids before ordering.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. T20-120P
T20-120P
Model number
T20-120P
Plate count (min)
20 plates
Plate count (max)
400 plates
Max flow rate
266.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine main cooling water
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
248 plates
Effective flow rate at duty point
266.0 m3/h
Configuration
120P configuration
Common Failures & Inspection Points
  • Plate-channel fouling or scaling caused by contaminated fluid can increase pressure drop and reduce heat-transfer performance
  • Aged, damaged or incorrectly seated gaskets can cause external leakage or mixing at the plate edge
  • Corrosion, erosion or cracking of a plate can cause internal cross-contamination indicated by unexpected fluid quality, tank level or pressure changes
  • Incorrect plate sequence or uneven tightening after maintenance can cause leakage, poor flow distribution or reduced thermal performance
  • Blocked strainers or restricted upstream piping can reduce flow and produce abnormal inlet-to-outlet temperatures
Service: Trend inlet and outlet temperatures, pressures and differential pressure so gradual fouling is detected before the exchanger loses required duty. Inspect the plate-pack edges, frame, tightening bolts, connections and supports for leakage, corrosion, distortion and piping loads. When opened, check plates for deposits, pitting, erosion, cracks and deformation and verify correct plate sequence and gasket seating during reassembly. Use only cleaning methods compatible with the installed plate and gasket materials. Refer to the manufacturer documentation for the exact tightening dimension, allowable pressure, temperature and cleaning limits.
Spare Parts: Carry the exact gasket type used in the installed plate pack, selected spare plates where operationally justified, connection seals and associated strainer elements. Plate and gasket materials must be matched to the exact exchanger configuration and process fluids before ordering.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
T20-150P
Model number
T20-150P
Plate count (min)
20 plates
Plate count (max)
400 plates
Max flow rate
323.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine main cooling water
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
305 plates
Effective flow rate at duty point
323.0 m3/h
Configuration
150P configuration
Common Failures & Inspection Points
  • Plate-channel fouling or scaling caused by contaminated fluid can increase pressure drop and reduce heat-transfer performance
  • Aged, damaged or incorrectly seated gaskets can cause external leakage or mixing at the plate edge
  • Corrosion, erosion or cracking of a plate can cause internal cross-contamination indicated by unexpected fluid quality, tank level or pressure changes
  • Incorrect plate sequence or uneven tightening after maintenance can cause leakage, poor flow distribution or reduced thermal performance
  • Blocked strainers or restricted upstream piping can reduce flow and produce abnormal inlet-to-outlet temperatures
Service: Trend inlet and outlet temperatures, pressures and differential pressure so gradual fouling is detected before the exchanger loses required duty. Inspect the plate-pack edges, frame, tightening bolts, connections and supports for leakage, corrosion, distortion and piping loads. When opened, check plates for deposits, pitting, erosion, cracks and deformation and verify correct plate sequence and gasket seating during reassembly. Use only cleaning methods compatible with the installed plate and gasket materials. Refer to the manufacturer documentation for the exact tightening dimension, allowable pressure, temperature and cleaning limits.
Spare Parts: Carry the exact gasket type used in the installed plate pack, selected spare plates where operationally justified, connection seals and associated strainer elements. Plate and gasket materials must be matched to the exact exchanger configuration and process fluids before ordering.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. T20-180P
T20-180P
Model number
T20-180P
Plate count (min)
20 plates
Plate count (max)
400 plates
Max flow rate
361.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine main cooling water
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
362 plates
Effective flow rate at duty point
361.0 m3/h
Configuration
180P configuration
Common Failures & Inspection Points
  • Plate-channel fouling or scaling caused by contaminated fluid can increase pressure drop and reduce heat-transfer performance
  • Aged, damaged or incorrectly seated gaskets can cause external leakage or mixing at the plate edge
  • Corrosion, erosion or cracking of a plate can cause internal cross-contamination indicated by unexpected fluid quality, tank level or pressure changes
  • Incorrect plate sequence or uneven tightening after maintenance can cause leakage, poor flow distribution or reduced thermal performance
  • Blocked strainers or restricted upstream piping can reduce flow and produce abnormal inlet-to-outlet temperatures
Service: Trend inlet and outlet temperatures, pressures and differential pressure so gradual fouling is detected before the exchanger loses required duty. Inspect the plate-pack edges, frame, tightening bolts, connections and supports for leakage, corrosion, distortion and piping loads. When opened, check plates for deposits, pitting, erosion, cracks and deformation and verify correct plate sequence and gasket seating during reassembly. Use only cleaning methods compatible with the installed plate and gasket materials. Refer to the manufacturer documentation for the exact tightening dimension, allowable pressure, temperature and cleaning limits.
Spare Parts: Carry the exact gasket type used in the installed plate pack, selected spare plates where operationally justified, connection seals and associated strainer elements. Plate and gasket materials must be matched to the exact exchanger configuration and process fluids before ordering.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. T20-MAX
T20-MAX
Model number
T20-MAX
Plate count (min)
20 plates
Plate count (max)
400 plates
Max flow rate
380.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine main cooling water
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
400 plates
Effective flow rate at duty point
380.0 m3/h
Configuration
MAX configuration
Common Failures & Inspection Points
  • Plate-channel fouling or scaling caused by contaminated fluid can increase pressure drop and reduce heat-transfer performance
  • Aged, damaged or incorrectly seated gaskets can cause external leakage or mixing at the plate edge
  • Corrosion, erosion or cracking of a plate can cause internal cross-contamination indicated by unexpected fluid quality, tank level or pressure changes
  • Incorrect plate sequence or uneven tightening after maintenance can cause leakage, poor flow distribution or reduced thermal performance
  • Blocked strainers or restricted upstream piping can reduce flow and produce abnormal inlet-to-outlet temperatures
Service: Trend inlet and outlet temperatures, pressures and differential pressure so gradual fouling is detected before the exchanger loses required duty. Inspect the plate-pack edges, frame, tightening bolts, connections and supports for leakage, corrosion, distortion and piping loads. When opened, check plates for deposits, pitting, erosion, cracks and deformation and verify correct plate sequence and gasket seating during reassembly. Use only cleaning methods compatible with the installed plate and gasket materials. Refer to the manufacturer documentation for the exact tightening dimension, allowable pressure, temperature and cleaning limits.
Spare Parts: Carry the exact gasket type used in the installed plate pack, selected spare plates where operationally justified, connection seals and associated strainer elements. Plate and gasket materials must be matched to the exact exchanger configuration and process fluids before ordering.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
T21-30P
Model number
T21-30P
Plate count (min)
20 plates
Plate count (max)
400 plates
Max flow rate
84.0 m3/h
Design pressure
16 bar
Max temperature
130 C
Application
efficient gasketed PHE for industrial duties
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
77 plates
Effective flow rate at duty point
84.0 m3/h
Configuration
30P configuration
Common Failures & Inspection Points
  • Plate-channel fouling or scaling caused by contaminated fluid can increase pressure drop and reduce heat-transfer performance
  • Aged, damaged or incorrectly seated gaskets can cause external leakage or mixing at the plate edge
  • Corrosion, erosion or cracking of a plate can cause internal cross-contamination indicated by unexpected fluid quality, tank level or pressure changes
  • Incorrect plate sequence or uneven tightening after maintenance can cause leakage, poor flow distribution or reduced thermal performance
  • Blocked strainers or restricted upstream piping can reduce flow and produce abnormal inlet-to-outlet temperatures
Service: Trend inlet and outlet temperatures, pressures and differential pressure so gradual fouling is detected before the exchanger loses required duty. Inspect the plate-pack edges, frame, tightening bolts, connections and supports for leakage, corrosion, distortion and piping loads. When opened, check plates for deposits, pitting, erosion, cracks and deformation and verify correct plate sequence and gasket seating during reassembly. Use only cleaning methods compatible with the installed plate and gasket materials. Refer to the manufacturer documentation for the exact tightening dimension, allowable pressure, temperature and cleaning limits.
Spare Parts: Carry the exact gasket type used in the installed plate pack, selected spare plates where operationally justified, connection seals and associated strainer elements. Plate and gasket materials must be matched to the exact exchanger configuration and process fluids before ordering.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. T21-60P
T21-60P
Model number
T21-60P
Plate count (min)
20 plates
Plate count (max)
400 plates
Max flow rate
159.6 m3/h
Design pressure
16 bar
Max temperature
130 C
Application
efficient gasketed PHE for industrial duties
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
134 plates
Effective flow rate at duty point
159.6 m3/h
Configuration
60P configuration
Common Failures & Inspection Points
  • Plate-channel fouling or scaling caused by contaminated fluid can increase pressure drop and reduce heat-transfer performance
  • Aged, damaged or incorrectly seated gaskets can cause external leakage or mixing at the plate edge
  • Corrosion, erosion or cracking of a plate can cause internal cross-contamination indicated by unexpected fluid quality, tank level or pressure changes
  • Incorrect plate sequence or uneven tightening after maintenance can cause leakage, poor flow distribution or reduced thermal performance
  • Blocked strainers or restricted upstream piping can reduce flow and produce abnormal inlet-to-outlet temperatures
Service: Trend inlet and outlet temperatures, pressures and differential pressure so gradual fouling is detected before the exchanger loses required duty. Inspect the plate-pack edges, frame, tightening bolts, connections and supports for leakage, corrosion, distortion and piping loads. When opened, check plates for deposits, pitting, erosion, cracks and deformation and verify correct plate sequence and gasket seating during reassembly. Use only cleaning methods compatible with the installed plate and gasket materials. Refer to the manufacturer documentation for the exact tightening dimension, allowable pressure, temperature and cleaning limits.
Spare Parts: Carry the exact gasket type used in the installed plate pack, selected spare plates where operationally justified, connection seals and associated strainer elements. Plate and gasket materials must be matched to the exact exchanger configuration and process fluids before ordering.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. T21-90P
T21-90P
Model number
T21-90P
Plate count (min)
20 plates
Plate count (max)
400 plates
Max flow rate
231.0 m3/h
Design pressure
16 bar
Max temperature
130 C
Application
efficient gasketed PHE for industrial duties
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
191 plates
Effective flow rate at duty point
231.0 m3/h
Configuration
90P configuration
Common Failures & Inspection Points
  • Plate-channel fouling or scaling caused by contaminated fluid can increase pressure drop and reduce heat-transfer performance
  • Aged, damaged or incorrectly seated gaskets can cause external leakage or mixing at the plate edge
  • Corrosion, erosion or cracking of a plate can cause internal cross-contamination indicated by unexpected fluid quality, tank level or pressure changes
  • Incorrect plate sequence or uneven tightening after maintenance can cause leakage, poor flow distribution or reduced thermal performance
  • Blocked strainers or restricted upstream piping can reduce flow and produce abnormal inlet-to-outlet temperatures
Service: Trend inlet and outlet temperatures, pressures and differential pressure so gradual fouling is detected before the exchanger loses required duty. Inspect the plate-pack edges, frame, tightening bolts, connections and supports for leakage, corrosion, distortion and piping loads. When opened, check plates for deposits, pitting, erosion, cracks and deformation and verify correct plate sequence and gasket seating during reassembly. Use only cleaning methods compatible with the installed plate and gasket materials. Refer to the manufacturer documentation for the exact tightening dimension, allowable pressure, temperature and cleaning limits.
Spare Parts: Carry the exact gasket type used in the installed plate pack, selected spare plates where operationally justified, connection seals and associated strainer elements. Plate and gasket materials must be matched to the exact exchanger configuration and process fluids before ordering.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. T21-120P
T21-120P
Model number
T21-120P
Plate count (min)
20 plates
Plate count (max)
400 plates
Max flow rate
294.0 m3/h
Design pressure
16 bar
Max temperature
130 C
Application
efficient gasketed PHE for industrial duties
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
248 plates
Effective flow rate at duty point
294.0 m3/h
Configuration
120P configuration
Common Failures & Inspection Points
  • Plate-channel fouling or scaling caused by contaminated fluid can increase pressure drop and reduce heat-transfer performance
  • Aged, damaged or incorrectly seated gaskets can cause external leakage or mixing at the plate edge
  • Corrosion, erosion or cracking of a plate can cause internal cross-contamination indicated by unexpected fluid quality, tank level or pressure changes
  • Incorrect plate sequence or uneven tightening after maintenance can cause leakage, poor flow distribution or reduced thermal performance
  • Blocked strainers or restricted upstream piping can reduce flow and produce abnormal inlet-to-outlet temperatures
Service: Trend inlet and outlet temperatures, pressures and differential pressure so gradual fouling is detected before the exchanger loses required duty. Inspect the plate-pack edges, frame, tightening bolts, connections and supports for leakage, corrosion, distortion and piping loads. When opened, check plates for deposits, pitting, erosion, cracks and deformation and verify correct plate sequence and gasket seating during reassembly. Use only cleaning methods compatible with the installed plate and gasket materials. Refer to the manufacturer documentation for the exact tightening dimension, allowable pressure, temperature and cleaning limits.
Spare Parts: Carry the exact gasket type used in the installed plate pack, selected spare plates where operationally justified, connection seals and associated strainer elements. Plate and gasket materials must be matched to the exact exchanger configuration and process fluids before ordering.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. T21-150P
T21-150P
Model number
T21-150P
Plate count (min)
20 plates
Plate count (max)
400 plates
Max flow rate
357.0 m3/h
Design pressure
16 bar
Max temperature
130 C
Application
efficient gasketed PHE for industrial duties
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
305 plates
Effective flow rate at duty point
357.0 m3/h
Configuration
150P configuration
Common Failures & Inspection Points
  • Plate-channel fouling or scaling caused by contaminated fluid can increase pressure drop and reduce heat-transfer performance
  • Aged, damaged or incorrectly seated gaskets can cause external leakage or mixing at the plate edge
  • Corrosion, erosion or cracking of a plate can cause internal cross-contamination indicated by unexpected fluid quality, tank level or pressure changes
  • Incorrect plate sequence or uneven tightening after maintenance can cause leakage, poor flow distribution or reduced thermal performance
  • Blocked strainers or restricted upstream piping can reduce flow and produce abnormal inlet-to-outlet temperatures
Service: Trend inlet and outlet temperatures, pressures and differential pressure so gradual fouling is detected before the exchanger loses required duty. Inspect the plate-pack edges, frame, tightening bolts, connections and supports for leakage, corrosion, distortion and piping loads. When opened, check plates for deposits, pitting, erosion, cracks and deformation and verify correct plate sequence and gasket seating during reassembly. Use only cleaning methods compatible with the installed plate and gasket materials. Refer to the manufacturer documentation for the exact tightening dimension, allowable pressure, temperature and cleaning limits.
Spare Parts: Carry the exact gasket type used in the installed plate pack, selected spare plates where operationally justified, connection seals and associated strainer elements. Plate and gasket materials must be matched to the exact exchanger configuration and process fluids before ordering.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. T21-180P
T21-180P
Model number
T21-180P
Plate count (min)
20 plates
Plate count (max)
400 plates
Max flow rate
399.0 m3/h
Design pressure
16 bar
Max temperature
130 C
Application
efficient gasketed PHE for industrial duties
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
362 plates
Effective flow rate at duty point
399.0 m3/h
Configuration
180P configuration
Common Failures & Inspection Points
  • Plate-channel fouling or scaling caused by contaminated fluid can increase pressure drop and reduce heat-transfer performance
  • Aged, damaged or incorrectly seated gaskets can cause external leakage or mixing at the plate edge
  • Corrosion, erosion or cracking of a plate can cause internal cross-contamination indicated by unexpected fluid quality, tank level or pressure changes
  • Incorrect plate sequence or uneven tightening after maintenance can cause leakage, poor flow distribution or reduced thermal performance
  • Blocked strainers or restricted upstream piping can reduce flow and produce abnormal inlet-to-outlet temperatures
Service: Trend inlet and outlet temperatures, pressures and differential pressure so gradual fouling is detected before the exchanger loses required duty. Inspect the plate-pack edges, frame, tightening bolts, connections and supports for leakage, corrosion, distortion and piping loads. When opened, check plates for deposits, pitting, erosion, cracks and deformation and verify correct plate sequence and gasket seating during reassembly. Use only cleaning methods compatible with the installed plate and gasket materials. Refer to the manufacturer documentation for the exact tightening dimension, allowable pressure, temperature and cleaning limits.
Spare Parts: Carry the exact gasket type used in the installed plate pack, selected spare plates where operationally justified, connection seals and associated strainer elements. Plate and gasket materials must be matched to the exact exchanger configuration and process fluids before ordering.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. T21-MAX
T21-MAX
Model number
T21-MAX
Plate count (min)
20 plates
Plate count (max)
400 plates
Max flow rate
420.0 m3/h
Design pressure
16 bar
Max temperature
130 C
Application
efficient gasketed PHE for industrial duties
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
400 plates
Effective flow rate at duty point
420.0 m3/h
Configuration
MAX configuration
Common Failures & Inspection Points
  • Plate-channel fouling or scaling caused by contaminated fluid can increase pressure drop and reduce heat-transfer performance
  • Aged, damaged or incorrectly seated gaskets can cause external leakage or mixing at the plate edge
  • Corrosion, erosion or cracking of a plate can cause internal cross-contamination indicated by unexpected fluid quality, tank level or pressure changes
  • Incorrect plate sequence or uneven tightening after maintenance can cause leakage, poor flow distribution or reduced thermal performance
  • Blocked strainers or restricted upstream piping can reduce flow and produce abnormal inlet-to-outlet temperatures
Service: Trend inlet and outlet temperatures, pressures and differential pressure so gradual fouling is detected before the exchanger loses required duty. Inspect the plate-pack edges, frame, tightening bolts, connections and supports for leakage, corrosion, distortion and piping loads. When opened, check plates for deposits, pitting, erosion, cracks and deformation and verify correct plate sequence and gasket seating during reassembly. Use only cleaning methods compatible with the installed plate and gasket materials. Refer to the manufacturer documentation for the exact tightening dimension, allowable pressure, temperature and cleaning limits.
Spare Parts: Carry the exact gasket type used in the installed plate pack, selected spare plates where operationally justified, connection seals and associated strainer elements. Plate and gasket materials must be matched to the exact exchanger configuration and process fluids before ordering.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
T25
Model number
T25
Plate count (min)
20 plates
Plate count (max)
500 plates
Max flow rate
550.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine large central cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Common Failures & Inspection Points
  • Plate-channel fouling or scaling caused by contaminated fluid can increase pressure drop and reduce heat-transfer performance
  • Aged, damaged or incorrectly seated gaskets can cause external leakage or mixing at the plate edge
  • Corrosion, erosion or cracking of a plate can cause internal cross-contamination indicated by unexpected fluid quality, tank level or pressure changes
  • Incorrect plate sequence or uneven tightening after maintenance can cause leakage, poor flow distribution or reduced thermal performance
  • Blocked strainers or restricted upstream piping can reduce flow and produce abnormal inlet-to-outlet temperatures
Service: Trend inlet and outlet temperatures, pressures and differential pressure so gradual fouling is detected before the exchanger loses required duty. Inspect the plate-pack edges, frame, tightening bolts, connections and supports for leakage, corrosion, distortion and piping loads. When opened, check plates for deposits, pitting, erosion, cracks and deformation and verify correct plate sequence and gasket seating during reassembly. Use only cleaning methods compatible with the installed plate and gasket materials. Refer to the manufacturer documentation for the exact tightening dimension, allowable pressure, temperature and cleaning limits.
Spare Parts: Carry the exact gasket type used in the installed plate pack, selected spare plates where operationally justified, connection seals and associated strainer elements. Plate and gasket materials must be matched to the exact exchanger configuration and process fluids before ordering.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
T25-30P
Model number
T25-30P
Plate count (min)
20 plates
Plate count (max)
500 plates
Max flow rate
110.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine large central cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
92 plates
Effective flow rate at duty point
110.0 m3/h
Configuration
30P configuration
Common Failures & Inspection Points
  • Plate-channel fouling or scaling caused by contaminated fluid can increase pressure drop and reduce heat-transfer performance
  • Aged, damaged or incorrectly seated gaskets can cause external leakage or mixing at the plate edge
  • Corrosion, erosion or cracking of a plate can cause internal cross-contamination indicated by unexpected fluid quality, tank level or pressure changes
  • Incorrect plate sequence or uneven tightening after maintenance can cause leakage, poor flow distribution or reduced thermal performance
  • Blocked strainers or restricted upstream piping can reduce flow and produce abnormal inlet-to-outlet temperatures
Service: Trend inlet and outlet temperatures, pressures and differential pressure so gradual fouling is detected before the exchanger loses required duty. Inspect the plate-pack edges, frame, tightening bolts, connections and supports for leakage, corrosion, distortion and piping loads. When opened, check plates for deposits, pitting, erosion, cracks and deformation and verify correct plate sequence and gasket seating during reassembly. Use only cleaning methods compatible with the installed plate and gasket materials. Refer to the manufacturer documentation for the exact tightening dimension, allowable pressure, temperature and cleaning limits.
Spare Parts: Carry the exact gasket type used in the installed plate pack, selected spare plates where operationally justified, connection seals and associated strainer elements. Plate and gasket materials must be matched to the exact exchanger configuration and process fluids before ordering.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. T25-60P
T25-60P
Model number
T25-60P
Plate count (min)
20 plates
Plate count (max)
500 plates
Max flow rate
209.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine large central cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
164 plates
Effective flow rate at duty point
209.0 m3/h
Configuration
60P configuration
Common Failures & Inspection Points
  • Plate-channel fouling or scaling caused by contaminated fluid can increase pressure drop and reduce heat-transfer performance
  • Aged, damaged or incorrectly seated gaskets can cause external leakage or mixing at the plate edge
  • Corrosion, erosion or cracking of a plate can cause internal cross-contamination indicated by unexpected fluid quality, tank level or pressure changes
  • Incorrect plate sequence or uneven tightening after maintenance can cause leakage, poor flow distribution or reduced thermal performance
  • Blocked strainers or restricted upstream piping can reduce flow and produce abnormal inlet-to-outlet temperatures
Service: Trend inlet and outlet temperatures, pressures and differential pressure so gradual fouling is detected before the exchanger loses required duty. Inspect the plate-pack edges, frame, tightening bolts, connections and supports for leakage, corrosion, distortion and piping loads. When opened, check plates for deposits, pitting, erosion, cracks and deformation and verify correct plate sequence and gasket seating during reassembly. Use only cleaning methods compatible with the installed plate and gasket materials. Refer to the manufacturer documentation for the exact tightening dimension, allowable pressure, temperature and cleaning limits.
Spare Parts: Carry the exact gasket type used in the installed plate pack, selected spare plates where operationally justified, connection seals and associated strainer elements. Plate and gasket materials must be matched to the exact exchanger configuration and process fluids before ordering.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. T25-90P
T25-90P
Model number
T25-90P
Plate count (min)
20 plates
Plate count (max)
500 plates
Max flow rate
302.5 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine large central cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
236 plates
Effective flow rate at duty point
302.5 m3/h
Configuration
90P configuration
Common Failures & Inspection Points
  • Plate-channel fouling or scaling caused by contaminated fluid can increase pressure drop and reduce heat-transfer performance
  • Aged, damaged or incorrectly seated gaskets can cause external leakage or mixing at the plate edge
  • Corrosion, erosion or cracking of a plate can cause internal cross-contamination indicated by unexpected fluid quality, tank level or pressure changes
  • Incorrect plate sequence or uneven tightening after maintenance can cause leakage, poor flow distribution or reduced thermal performance
  • Blocked strainers or restricted upstream piping can reduce flow and produce abnormal inlet-to-outlet temperatures
Service: Trend inlet and outlet temperatures, pressures and differential pressure so gradual fouling is detected before the exchanger loses required duty. Inspect the plate-pack edges, frame, tightening bolts, connections and supports for leakage, corrosion, distortion and piping loads. When opened, check plates for deposits, pitting, erosion, cracks and deformation and verify correct plate sequence and gasket seating during reassembly. Use only cleaning methods compatible with the installed plate and gasket materials. Refer to the manufacturer documentation for the exact tightening dimension, allowable pressure, temperature and cleaning limits.
Spare Parts: Carry the exact gasket type used in the installed plate pack, selected spare plates where operationally justified, connection seals and associated strainer elements. Plate and gasket materials must be matched to the exact exchanger configuration and process fluids before ordering.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
T25-120P
Model number
T25-120P
Plate count (min)
20 plates
Plate count (max)
500 plates
Max flow rate
385.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine large central cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
308 plates
Effective flow rate at duty point
385.0 m3/h
Configuration
120P configuration
Common Failures & Inspection Points
  • Plate-channel fouling or scaling caused by contaminated fluid can increase pressure drop and reduce heat-transfer performance
  • Aged, damaged or incorrectly seated gaskets can cause external leakage or mixing at the plate edge
  • Corrosion, erosion or cracking of a plate can cause internal cross-contamination indicated by unexpected fluid quality, tank level or pressure changes
  • Incorrect plate sequence or uneven tightening after maintenance can cause leakage, poor flow distribution or reduced thermal performance
  • Blocked strainers or restricted upstream piping can reduce flow and produce abnormal inlet-to-outlet temperatures
Service: Trend inlet and outlet temperatures, pressures and differential pressure so gradual fouling is detected before the exchanger loses required duty. Inspect the plate-pack edges, frame, tightening bolts, connections and supports for leakage, corrosion, distortion and piping loads. When opened, check plates for deposits, pitting, erosion, cracks and deformation and verify correct plate sequence and gasket seating during reassembly. Use only cleaning methods compatible with the installed plate and gasket materials. Refer to the manufacturer documentation for the exact tightening dimension, allowable pressure, temperature and cleaning limits.
Spare Parts: Carry the exact gasket type used in the installed plate pack, selected spare plates where operationally justified, connection seals and associated strainer elements. Plate and gasket materials must be matched to the exact exchanger configuration and process fluids before ordering.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. T25-150P
T25-150P
Model number
T25-150P
Plate count (min)
20 plates
Plate count (max)
500 plates
Max flow rate
467.5 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine large central cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
380 plates
Effective flow rate at duty point
467.5 m3/h
Configuration
150P configuration
Common Failures & Inspection Points
  • Plate-channel fouling or scaling caused by contaminated fluid can increase pressure drop and reduce heat-transfer performance
  • Aged, damaged or incorrectly seated gaskets can cause external leakage or mixing at the plate edge
  • Corrosion, erosion or cracking of a plate can cause internal cross-contamination indicated by unexpected fluid quality, tank level or pressure changes
  • Incorrect plate sequence or uneven tightening after maintenance can cause leakage, poor flow distribution or reduced thermal performance
  • Blocked strainers or restricted upstream piping can reduce flow and produce abnormal inlet-to-outlet temperatures
Service: Trend inlet and outlet temperatures, pressures and differential pressure so gradual fouling is detected before the exchanger loses required duty. Inspect the plate-pack edges, frame, tightening bolts, connections and supports for leakage, corrosion, distortion and piping loads. When opened, check plates for deposits, pitting, erosion, cracks and deformation and verify correct plate sequence and gasket seating during reassembly. Use only cleaning methods compatible with the installed plate and gasket materials. Refer to the manufacturer documentation for the exact tightening dimension, allowable pressure, temperature and cleaning limits.
Spare Parts: Carry the exact gasket type used in the installed plate pack, selected spare plates where operationally justified, connection seals and associated strainer elements. Plate and gasket materials must be matched to the exact exchanger configuration and process fluids before ordering.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. T25-180P
T25-180P
Model number
T25-180P
Plate count (min)
20 plates
Plate count (max)
500 plates
Max flow rate
522.5 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine large central cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
452 plates
Effective flow rate at duty point
522.5 m3/h
Configuration
180P configuration
Common Failures & Inspection Points
  • Plate-channel fouling or scaling caused by contaminated fluid can increase pressure drop and reduce heat-transfer performance
  • Aged, damaged or incorrectly seated gaskets can cause external leakage or mixing at the plate edge
  • Corrosion, erosion or cracking of a plate can cause internal cross-contamination indicated by unexpected fluid quality, tank level or pressure changes
  • Incorrect plate sequence or uneven tightening after maintenance can cause leakage, poor flow distribution or reduced thermal performance
  • Blocked strainers or restricted upstream piping can reduce flow and produce abnormal inlet-to-outlet temperatures
Service: Trend inlet and outlet temperatures, pressures and differential pressure so gradual fouling is detected before the exchanger loses required duty. Inspect the plate-pack edges, frame, tightening bolts, connections and supports for leakage, corrosion, distortion and piping loads. When opened, check plates for deposits, pitting, erosion, cracks and deformation and verify correct plate sequence and gasket seating during reassembly. Use only cleaning methods compatible with the installed plate and gasket materials. Refer to the manufacturer documentation for the exact tightening dimension, allowable pressure, temperature and cleaning limits.
Spare Parts: Carry the exact gasket type used in the installed plate pack, selected spare plates where operationally justified, connection seals and associated strainer elements. Plate and gasket materials must be matched to the exact exchanger configuration and process fluids before ordering.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. T25-MAX
T25-MAX
Model number
T25-MAX
Plate count (min)
20 plates
Plate count (max)
500 plates
Max flow rate
550.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine large central cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
500 plates
Effective flow rate at duty point
550.0 m3/h
Configuration
MAX configuration
Common Failures & Inspection Points
  • Plate-channel fouling or scaling caused by contaminated fluid can increase pressure drop and reduce heat-transfer performance
  • Aged, damaged or incorrectly seated gaskets can cause external leakage or mixing at the plate edge
  • Corrosion, erosion or cracking of a plate can cause internal cross-contamination indicated by unexpected fluid quality, tank level or pressure changes
  • Incorrect plate sequence or uneven tightening after maintenance can cause leakage, poor flow distribution or reduced thermal performance
  • Blocked strainers or restricted upstream piping can reduce flow and produce abnormal inlet-to-outlet temperatures
Service: Trend inlet and outlet temperatures, pressures and differential pressure so gradual fouling is detected before the exchanger loses required duty. Inspect the plate-pack edges, frame, tightening bolts, connections and supports for leakage, corrosion, distortion and piping loads. When opened, check plates for deposits, pitting, erosion, cracks and deformation and verify correct plate sequence and gasket seating during reassembly. Use only cleaning methods compatible with the installed plate and gasket materials. Refer to the manufacturer documentation for the exact tightening dimension, allowable pressure, temperature and cleaning limits.
Spare Parts: Carry the exact gasket type used in the installed plate pack, selected spare plates where operationally justified, connection seals and associated strainer elements. Plate and gasket materials must be matched to the exact exchanger configuration and process fluids before ordering.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
T35
Model number
T35
Plate count (min)
30 plates
Plate count (max)
600 plates
Max flow rate
850.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine industrial cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Common Failures & Inspection Points
  • Plate-channel fouling or scaling caused by contaminated fluid can increase pressure drop and reduce heat-transfer performance
  • Aged, damaged or incorrectly seated gaskets can cause external leakage or mixing at the plate edge
  • Corrosion, erosion or cracking of a plate can cause internal cross-contamination indicated by unexpected fluid quality, tank level or pressure changes
  • Incorrect plate sequence or uneven tightening after maintenance can cause leakage, poor flow distribution or reduced thermal performance
  • Blocked strainers or restricted upstream piping can reduce flow and produce abnormal inlet-to-outlet temperatures
Service: Trend inlet and outlet temperatures, pressures and differential pressure so gradual fouling is detected before the exchanger loses required duty. Inspect the plate-pack edges, frame, tightening bolts, connections and supports for leakage, corrosion, distortion and piping loads. When opened, check plates for deposits, pitting, erosion, cracks and deformation and verify correct plate sequence and gasket seating during reassembly. Use only cleaning methods compatible with the installed plate and gasket materials. Refer to the manufacturer documentation for the exact tightening dimension, allowable pressure, temperature and cleaning limits.
Spare Parts: Carry the exact gasket type used in the installed plate pack, selected spare plates where operationally justified, connection seals and associated strainer elements. Plate and gasket materials must be matched to the exact exchanger configuration and process fluids before ordering.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. T35-30P
T35-30P
Model number
T35-30P
Plate count (min)
30 plates
Plate count (max)
600 plates
Max flow rate
170.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine industrial cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
115 plates
Effective flow rate at duty point
170.0 m3/h
Configuration
30P configuration
Common Failures & Inspection Points
  • Plate-channel fouling or scaling caused by contaminated fluid can increase pressure drop and reduce heat-transfer performance
  • Aged, damaged or incorrectly seated gaskets can cause external leakage or mixing at the plate edge
  • Corrosion, erosion or cracking of a plate can cause internal cross-contamination indicated by unexpected fluid quality, tank level or pressure changes
  • Incorrect plate sequence or uneven tightening after maintenance can cause leakage, poor flow distribution or reduced thermal performance
  • Blocked strainers or restricted upstream piping can reduce flow and produce abnormal inlet-to-outlet temperatures
Service: Trend inlet and outlet temperatures, pressures and differential pressure so gradual fouling is detected before the exchanger loses required duty. Inspect the plate-pack edges, frame, tightening bolts, connections and supports for leakage, corrosion, distortion and piping loads. When opened, check plates for deposits, pitting, erosion, cracks and deformation and verify correct plate sequence and gasket seating during reassembly. Use only cleaning methods compatible with the installed plate and gasket materials. Refer to the manufacturer documentation for the exact tightening dimension, allowable pressure, temperature and cleaning limits.
Spare Parts: Carry the exact gasket type used in the installed plate pack, selected spare plates where operationally justified, connection seals and associated strainer elements. Plate and gasket materials must be matched to the exact exchanger configuration and process fluids before ordering.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
T35-60P
Model number
T35-60P
Plate count (min)
30 plates
Plate count (max)
600 plates
Max flow rate
323.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine industrial cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
201 plates
Effective flow rate at duty point
323.0 m3/h
Configuration
60P configuration
Common Failures & Inspection Points
  • Plate-channel fouling or scaling caused by contaminated fluid can increase pressure drop and reduce heat-transfer performance
  • Aged, damaged or incorrectly seated gaskets can cause external leakage or mixing at the plate edge
  • Corrosion, erosion or cracking of a plate can cause internal cross-contamination indicated by unexpected fluid quality, tank level or pressure changes
  • Incorrect plate sequence or uneven tightening after maintenance can cause leakage, poor flow distribution or reduced thermal performance
  • Blocked strainers or restricted upstream piping can reduce flow and produce abnormal inlet-to-outlet temperatures
Service: Trend inlet and outlet temperatures, pressures and differential pressure so gradual fouling is detected before the exchanger loses required duty. Inspect the plate-pack edges, frame, tightening bolts, connections and supports for leakage, corrosion, distortion and piping loads. When opened, check plates for deposits, pitting, erosion, cracks and deformation and verify correct plate sequence and gasket seating during reassembly. Use only cleaning methods compatible with the installed plate and gasket materials. Refer to the manufacturer documentation for the exact tightening dimension, allowable pressure, temperature and cleaning limits.
Spare Parts: Carry the exact gasket type used in the installed plate pack, selected spare plates where operationally justified, connection seals and associated strainer elements. Plate and gasket materials must be matched to the exact exchanger configuration and process fluids before ordering.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. T35-90P
T35-90P
Model number
T35-90P
Plate count (min)
30 plates
Plate count (max)
600 plates
Max flow rate
467.5 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine industrial cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
286 plates
Effective flow rate at duty point
467.5 m3/h
Configuration
90P configuration
Common Failures & Inspection Points
  • Plate-channel fouling or scaling caused by contaminated fluid can increase pressure drop and reduce heat-transfer performance
  • Aged, damaged or incorrectly seated gaskets can cause external leakage or mixing at the plate edge
  • Corrosion, erosion or cracking of a plate can cause internal cross-contamination indicated by unexpected fluid quality, tank level or pressure changes
  • Incorrect plate sequence or uneven tightening after maintenance can cause leakage, poor flow distribution or reduced thermal performance
  • Blocked strainers or restricted upstream piping can reduce flow and produce abnormal inlet-to-outlet temperatures
Service: Trend inlet and outlet temperatures, pressures and differential pressure so gradual fouling is detected before the exchanger loses required duty. Inspect the plate-pack edges, frame, tightening bolts, connections and supports for leakage, corrosion, distortion and piping loads. When opened, check plates for deposits, pitting, erosion, cracks and deformation and verify correct plate sequence and gasket seating during reassembly. Use only cleaning methods compatible with the installed plate and gasket materials. Refer to the manufacturer documentation for the exact tightening dimension, allowable pressure, temperature and cleaning limits.
Spare Parts: Carry the exact gasket type used in the installed plate pack, selected spare plates where operationally justified, connection seals and associated strainer elements. Plate and gasket materials must be matched to the exact exchanger configuration and process fluids before ordering.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. T35-120P
T35-120P
Model number
T35-120P
Plate count (min)
30 plates
Plate count (max)
600 plates
Max flow rate
595.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine industrial cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
372 plates
Effective flow rate at duty point
595.0 m3/h
Configuration
120P configuration
Common Failures & Inspection Points
  • Plate-channel fouling or scaling caused by contaminated fluid can increase pressure drop and reduce heat-transfer performance
  • Aged, damaged or incorrectly seated gaskets can cause external leakage or mixing at the plate edge
  • Corrosion, erosion or cracking of a plate can cause internal cross-contamination indicated by unexpected fluid quality, tank level or pressure changes
  • Incorrect plate sequence or uneven tightening after maintenance can cause leakage, poor flow distribution or reduced thermal performance
  • Blocked strainers or restricted upstream piping can reduce flow and produce abnormal inlet-to-outlet temperatures
Service: Trend inlet and outlet temperatures, pressures and differential pressure so gradual fouling is detected before the exchanger loses required duty. Inspect the plate-pack edges, frame, tightening bolts, connections and supports for leakage, corrosion, distortion and piping loads. When opened, check plates for deposits, pitting, erosion, cracks and deformation and verify correct plate sequence and gasket seating during reassembly. Use only cleaning methods compatible with the installed plate and gasket materials. Refer to the manufacturer documentation for the exact tightening dimension, allowable pressure, temperature and cleaning limits.
Spare Parts: Carry the exact gasket type used in the installed plate pack, selected spare plates where operationally justified, connection seals and associated strainer elements. Plate and gasket materials must be matched to the exact exchanger configuration and process fluids before ordering.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. T35-150P
T35-150P
Model number
T35-150P
Plate count (min)
30 plates
Plate count (max)
600 plates
Max flow rate
722.5 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine industrial cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
457 plates
Effective flow rate at duty point
722.5 m3/h
Configuration
150P configuration
Common Failures & Inspection Points
  • Plate-channel fouling or scaling caused by contaminated fluid can increase pressure drop and reduce heat-transfer performance
  • Aged, damaged or incorrectly seated gaskets can cause external leakage or mixing at the plate edge
  • Corrosion, erosion or cracking of a plate can cause internal cross-contamination indicated by unexpected fluid quality, tank level or pressure changes
  • Incorrect plate sequence or uneven tightening after maintenance can cause leakage, poor flow distribution or reduced thermal performance
  • Blocked strainers or restricted upstream piping can reduce flow and produce abnormal inlet-to-outlet temperatures
Service: Trend inlet and outlet temperatures, pressures and differential pressure so gradual fouling is detected before the exchanger loses required duty. Inspect the plate-pack edges, frame, tightening bolts, connections and supports for leakage, corrosion, distortion and piping loads. When opened, check plates for deposits, pitting, erosion, cracks and deformation and verify correct plate sequence and gasket seating during reassembly. Use only cleaning methods compatible with the installed plate and gasket materials. Refer to the manufacturer documentation for the exact tightening dimension, allowable pressure, temperature and cleaning limits.
Spare Parts: Carry the exact gasket type used in the installed plate pack, selected spare plates where operationally justified, connection seals and associated strainer elements. Plate and gasket materials must be matched to the exact exchanger configuration and process fluids before ordering.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. T35-180P
T35-180P
Model number
T35-180P
Plate count (min)
30 plates
Plate count (max)
600 plates
Max flow rate
807.5 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine industrial cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
543 plates
Effective flow rate at duty point
807.5 m3/h
Configuration
180P configuration
Common Failures & Inspection Points
  • Plate-channel fouling or scaling caused by contaminated fluid can increase pressure drop and reduce heat-transfer performance
  • Aged, damaged or incorrectly seated gaskets can cause external leakage or mixing at the plate edge
  • Corrosion, erosion or cracking of a plate can cause internal cross-contamination indicated by unexpected fluid quality, tank level or pressure changes
  • Incorrect plate sequence or uneven tightening after maintenance can cause leakage, poor flow distribution or reduced thermal performance
  • Blocked strainers or restricted upstream piping can reduce flow and produce abnormal inlet-to-outlet temperatures
Service: Trend inlet and outlet temperatures, pressures and differential pressure so gradual fouling is detected before the exchanger loses required duty. Inspect the plate-pack edges, frame, tightening bolts, connections and supports for leakage, corrosion, distortion and piping loads. When opened, check plates for deposits, pitting, erosion, cracks and deformation and verify correct plate sequence and gasket seating during reassembly. Use only cleaning methods compatible with the installed plate and gasket materials. Refer to the manufacturer documentation for the exact tightening dimension, allowable pressure, temperature and cleaning limits.
Spare Parts: Carry the exact gasket type used in the installed plate pack, selected spare plates where operationally justified, connection seals and associated strainer elements. Plate and gasket materials must be matched to the exact exchanger configuration and process fluids before ordering.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. T35-MAX
T35-MAX
Model number
T35-MAX
Plate count (min)
30 plates
Plate count (max)
600 plates
Max flow rate
850.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine industrial cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
600 plates
Effective flow rate at duty point
850.0 m3/h
Configuration
MAX configuration
Common Failures & Inspection Points
  • Plate-channel fouling or scaling caused by contaminated fluid can increase pressure drop and reduce heat-transfer performance
  • Aged, damaged or incorrectly seated gaskets can cause external leakage or mixing at the plate edge
  • Corrosion, erosion or cracking of a plate can cause internal cross-contamination indicated by unexpected fluid quality, tank level or pressure changes
  • Incorrect plate sequence or uneven tightening after maintenance can cause leakage, poor flow distribution or reduced thermal performance
  • Blocked strainers or restricted upstream piping can reduce flow and produce abnormal inlet-to-outlet temperatures
Service: Trend inlet and outlet temperatures, pressures and differential pressure so gradual fouling is detected before the exchanger loses required duty. Inspect the plate-pack edges, frame, tightening bolts, connections and supports for leakage, corrosion, distortion and piping loads. When opened, check plates for deposits, pitting, erosion, cracks and deformation and verify correct plate sequence and gasket seating during reassembly. Use only cleaning methods compatible with the installed plate and gasket materials. Refer to the manufacturer documentation for the exact tightening dimension, allowable pressure, temperature and cleaning limits.
Spare Parts: Carry the exact gasket type used in the installed plate pack, selected spare plates where operationally justified, connection seals and associated strainer elements. Plate and gasket materials must be matched to the exact exchanger configuration and process fluids before ordering.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
T50
Model number
T50
Plate count (min)
30 plates
Plate count (max)
700 plates
Max flow rate
1300.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
very large duties, industrial
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Common Failures & Inspection Points
  • Plate-channel fouling or scaling caused by contaminated fluid can increase pressure drop and reduce heat-transfer performance
  • Aged, damaged or incorrectly seated gaskets can cause external leakage or mixing at the plate edge
  • Corrosion, erosion or cracking of a plate can cause internal cross-contamination indicated by unexpected fluid quality, tank level or pressure changes
  • Incorrect plate sequence or uneven tightening after maintenance can cause leakage, poor flow distribution or reduced thermal performance
  • Blocked strainers or restricted upstream piping can reduce flow and produce abnormal inlet-to-outlet temperatures
Service: Trend inlet and outlet temperatures, pressures and differential pressure so gradual fouling is detected before the exchanger loses required duty. Inspect the plate-pack edges, frame, tightening bolts, connections and supports for leakage, corrosion, distortion and piping loads. When opened, check plates for deposits, pitting, erosion, cracks and deformation and verify correct plate sequence and gasket seating during reassembly. Use only cleaning methods compatible with the installed plate and gasket materials. Refer to the manufacturer documentation for the exact tightening dimension, allowable pressure, temperature and cleaning limits.
Spare Parts: Carry the exact gasket type used in the installed plate pack, selected spare plates where operationally justified, connection seals and associated strainer elements. Plate and gasket materials must be matched to the exact exchanger configuration and process fluids before ordering.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. T50-30P
T50-30P
Model number
T50-30P
Plate count (min)
30 plates
Plate count (max)
700 plates
Max flow rate
260.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
very large duties, industrial
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
130 plates
Effective flow rate at duty point
260.0 m3/h
Configuration
30P configuration
Common Failures & Inspection Points
  • Plate-channel fouling or scaling caused by contaminated fluid can increase pressure drop and reduce heat-transfer performance
  • Aged, damaged or incorrectly seated gaskets can cause external leakage or mixing at the plate edge
  • Corrosion, erosion or cracking of a plate can cause internal cross-contamination indicated by unexpected fluid quality, tank level or pressure changes
  • Incorrect plate sequence or uneven tightening after maintenance can cause leakage, poor flow distribution or reduced thermal performance
  • Blocked strainers or restricted upstream piping can reduce flow and produce abnormal inlet-to-outlet temperatures
Service: Trend inlet and outlet temperatures, pressures and differential pressure so gradual fouling is detected before the exchanger loses required duty. Inspect the plate-pack edges, frame, tightening bolts, connections and supports for leakage, corrosion, distortion and piping loads. When opened, check plates for deposits, pitting, erosion, cracks and deformation and verify correct plate sequence and gasket seating during reassembly. Use only cleaning methods compatible with the installed plate and gasket materials. Refer to the manufacturer documentation for the exact tightening dimension, allowable pressure, temperature and cleaning limits.
Spare Parts: Carry the exact gasket type used in the installed plate pack, selected spare plates where operationally justified, connection seals and associated strainer elements. Plate and gasket materials must be matched to the exact exchanger configuration and process fluids before ordering.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. T50-60P
T50-60P
Model number
T50-60P
Plate count (min)
30 plates
Plate count (max)
700 plates
Max flow rate
494.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
very large duties, industrial
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
231 plates
Effective flow rate at duty point
494.0 m3/h
Configuration
60P configuration
Common Failures & Inspection Points
  • Plate-channel fouling or scaling caused by contaminated fluid can increase pressure drop and reduce heat-transfer performance
  • Aged, damaged or incorrectly seated gaskets can cause external leakage or mixing at the plate edge
  • Corrosion, erosion or cracking of a plate can cause internal cross-contamination indicated by unexpected fluid quality, tank level or pressure changes
  • Incorrect plate sequence or uneven tightening after maintenance can cause leakage, poor flow distribution or reduced thermal performance
  • Blocked strainers or restricted upstream piping can reduce flow and produce abnormal inlet-to-outlet temperatures
Service: Trend inlet and outlet temperatures, pressures and differential pressure so gradual fouling is detected before the exchanger loses required duty. Inspect the plate-pack edges, frame, tightening bolts, connections and supports for leakage, corrosion, distortion and piping loads. When opened, check plates for deposits, pitting, erosion, cracks and deformation and verify correct plate sequence and gasket seating during reassembly. Use only cleaning methods compatible with the installed plate and gasket materials. Refer to the manufacturer documentation for the exact tightening dimension, allowable pressure, temperature and cleaning limits.
Spare Parts: Carry the exact gasket type used in the installed plate pack, selected spare plates where operationally justified, connection seals and associated strainer elements. Plate and gasket materials must be matched to the exact exchanger configuration and process fluids before ordering.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. T50-90P
T50-90P
Model number
T50-90P
Plate count (min)
30 plates
Plate count (max)
700 plates
Max flow rate
715.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
very large duties, industrial
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
331 plates
Effective flow rate at duty point
715.0 m3/h
Configuration
90P configuration
Common Failures & Inspection Points
  • Plate-channel fouling or scaling caused by contaminated fluid can increase pressure drop and reduce heat-transfer performance
  • Aged, damaged or incorrectly seated gaskets can cause external leakage or mixing at the plate edge
  • Corrosion, erosion or cracking of a plate can cause internal cross-contamination indicated by unexpected fluid quality, tank level or pressure changes
  • Incorrect plate sequence or uneven tightening after maintenance can cause leakage, poor flow distribution or reduced thermal performance
  • Blocked strainers or restricted upstream piping can reduce flow and produce abnormal inlet-to-outlet temperatures
Service: Trend inlet and outlet temperatures, pressures and differential pressure so gradual fouling is detected before the exchanger loses required duty. Inspect the plate-pack edges, frame, tightening bolts, connections and supports for leakage, corrosion, distortion and piping loads. When opened, check plates for deposits, pitting, erosion, cracks and deformation and verify correct plate sequence and gasket seating during reassembly. Use only cleaning methods compatible with the installed plate and gasket materials. Refer to the manufacturer documentation for the exact tightening dimension, allowable pressure, temperature and cleaning limits.
Spare Parts: Carry the exact gasket type used in the installed plate pack, selected spare plates where operationally justified, connection seals and associated strainer elements. Plate and gasket materials must be matched to the exact exchanger configuration and process fluids before ordering.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. T50-120P
T50-120P
Model number
T50-120P
Plate count (min)
30 plates
Plate count (max)
700 plates
Max flow rate
910.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
very large duties, industrial
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
432 plates
Effective flow rate at duty point
910.0 m3/h
Configuration
120P configuration
Common Failures & Inspection Points
  • Plate-channel fouling or scaling caused by contaminated fluid can increase pressure drop and reduce heat-transfer performance
  • Aged, damaged or incorrectly seated gaskets can cause external leakage or mixing at the plate edge
  • Corrosion, erosion or cracking of a plate can cause internal cross-contamination indicated by unexpected fluid quality, tank level or pressure changes
  • Incorrect plate sequence or uneven tightening after maintenance can cause leakage, poor flow distribution or reduced thermal performance
  • Blocked strainers or restricted upstream piping can reduce flow and produce abnormal inlet-to-outlet temperatures
Service: Trend inlet and outlet temperatures, pressures and differential pressure so gradual fouling is detected before the exchanger loses required duty. Inspect the plate-pack edges, frame, tightening bolts, connections and supports for leakage, corrosion, distortion and piping loads. When opened, check plates for deposits, pitting, erosion, cracks and deformation and verify correct plate sequence and gasket seating during reassembly. Use only cleaning methods compatible with the installed plate and gasket materials. Refer to the manufacturer documentation for the exact tightening dimension, allowable pressure, temperature and cleaning limits.
Spare Parts: Carry the exact gasket type used in the installed plate pack, selected spare plates where operationally justified, connection seals and associated strainer elements. Plate and gasket materials must be matched to the exact exchanger configuration and process fluids before ordering.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. T50-150P
T50-150P
Model number
T50-150P
Plate count (min)
30 plates
Plate count (max)
700 plates
Max flow rate
1105.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
very large duties, industrial
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
532 plates
Effective flow rate at duty point
1105.0 m3/h
Configuration
150P configuration
Common Failures & Inspection Points
  • Plate-channel fouling or scaling caused by contaminated fluid can increase pressure drop and reduce heat-transfer performance
  • Aged, damaged or incorrectly seated gaskets can cause external leakage or mixing at the plate edge
  • Corrosion, erosion or cracking of a plate can cause internal cross-contamination indicated by unexpected fluid quality, tank level or pressure changes
  • Incorrect plate sequence or uneven tightening after maintenance can cause leakage, poor flow distribution or reduced thermal performance
  • Blocked strainers or restricted upstream piping can reduce flow and produce abnormal inlet-to-outlet temperatures
Service: Trend inlet and outlet temperatures, pressures and differential pressure so gradual fouling is detected before the exchanger loses required duty. Inspect the plate-pack edges, frame, tightening bolts, connections and supports for leakage, corrosion, distortion and piping loads. When opened, check plates for deposits, pitting, erosion, cracks and deformation and verify correct plate sequence and gasket seating during reassembly. Use only cleaning methods compatible with the installed plate and gasket materials. Refer to the manufacturer documentation for the exact tightening dimension, allowable pressure, temperature and cleaning limits.
Spare Parts: Carry the exact gasket type used in the installed plate pack, selected spare plates where operationally justified, connection seals and associated strainer elements. Plate and gasket materials must be matched to the exact exchanger configuration and process fluids before ordering.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. T50-180P
T50-180P
Model number
T50-180P
Plate count (min)
30 plates
Plate count (max)
700 plates
Max flow rate
1235.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
very large duties, industrial
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
633 plates
Effective flow rate at duty point
1235.0 m3/h
Configuration
180P configuration
Common Failures & Inspection Points
  • Plate-channel fouling or scaling caused by contaminated fluid can increase pressure drop and reduce heat-transfer performance
  • Aged, damaged or incorrectly seated gaskets can cause external leakage or mixing at the plate edge
  • Corrosion, erosion or cracking of a plate can cause internal cross-contamination indicated by unexpected fluid quality, tank level or pressure changes
  • Incorrect plate sequence or uneven tightening after maintenance can cause leakage, poor flow distribution or reduced thermal performance
  • Blocked strainers or restricted upstream piping can reduce flow and produce abnormal inlet-to-outlet temperatures
Service: Trend inlet and outlet temperatures, pressures and differential pressure so gradual fouling is detected before the exchanger loses required duty. Inspect the plate-pack edges, frame, tightening bolts, connections and supports for leakage, corrosion, distortion and piping loads. When opened, check plates for deposits, pitting, erosion, cracks and deformation and verify correct plate sequence and gasket seating during reassembly. Use only cleaning methods compatible with the installed plate and gasket materials. Refer to the manufacturer documentation for the exact tightening dimension, allowable pressure, temperature and cleaning limits.
Spare Parts: Carry the exact gasket type used in the installed plate pack, selected spare plates where operationally justified, connection seals and associated strainer elements. Plate and gasket materials must be matched to the exact exchanger configuration and process fluids before ordering.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. T50-MAX
T50-MAX
Model number
T50-MAX
Plate count (min)
30 plates
Plate count (max)
700 plates
Max flow rate
1300.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
very large duties, industrial
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
700 plates
Effective flow rate at duty point
1300.0 m3/h
Configuration
MAX configuration
Common Failures & Inspection Points
  • Plate-channel fouling or scaling caused by contaminated fluid can increase pressure drop and reduce heat-transfer performance
  • Aged, damaged or incorrectly seated gaskets can cause external leakage or mixing at the plate edge
  • Corrosion, erosion or cracking of a plate can cause internal cross-contamination indicated by unexpected fluid quality, tank level or pressure changes
  • Incorrect plate sequence or uneven tightening after maintenance can cause leakage, poor flow distribution or reduced thermal performance
  • Blocked strainers or restricted upstream piping can reduce flow and produce abnormal inlet-to-outlet temperatures
Service: Trend inlet and outlet temperatures, pressures and differential pressure so gradual fouling is detected before the exchanger loses required duty. Inspect the plate-pack edges, frame, tightening bolts, connections and supports for leakage, corrosion, distortion and piping loads. When opened, check plates for deposits, pitting, erosion, cracks and deformation and verify correct plate sequence and gasket seating during reassembly. Use only cleaning methods compatible with the installed plate and gasket materials. Refer to the manufacturer documentation for the exact tightening dimension, allowable pressure, temperature and cleaning limits.
Spare Parts: Carry the exact gasket type used in the installed plate pack, selected spare plates where operationally justified, connection seals and associated strainer elements. Plate and gasket materials must be matched to the exact exchanger configuration and process fluids before ordering.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. T57
T57
Model number
T57
Plate count (min)
30 plates
Plate count (max)
700 plates
Max flow rate
1600.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
very large duties, industrial
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Common Failures & Inspection Points
  • Plate-channel fouling or scaling caused by contaminated fluid can increase pressure drop and reduce heat-transfer performance
  • Aged, damaged or incorrectly seated gaskets can cause external leakage or mixing at the plate edge
  • Corrosion, erosion or cracking of a plate can cause internal cross-contamination indicated by unexpected fluid quality, tank level or pressure changes
  • Incorrect plate sequence or uneven tightening after maintenance can cause leakage, poor flow distribution or reduced thermal performance
  • Blocked strainers or restricted upstream piping can reduce flow and produce abnormal inlet-to-outlet temperatures
Service: Trend inlet and outlet temperatures, pressures and differential pressure so gradual fouling is detected before the exchanger loses required duty. Inspect the plate-pack edges, frame, tightening bolts, connections and supports for leakage, corrosion, distortion and piping loads. When opened, check plates for deposits, pitting, erosion, cracks and deformation and verify correct plate sequence and gasket seating during reassembly. Use only cleaning methods compatible with the installed plate and gasket materials. Refer to the manufacturer documentation for the exact tightening dimension, allowable pressure, temperature and cleaning limits.
Spare Parts: Carry the exact gasket type used in the installed plate pack, selected spare plates where operationally justified, connection seals and associated strainer elements. Plate and gasket materials must be matched to the exact exchanger configuration and process fluids before ordering.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. Packinox In Hydrodesulfurization
Packinox In Hydrodesulfurization
Packinox
5°C (9°F) 2 bar
Shell-and-tube HEX train
30°C (54°F) 4 bar
Common Failures & Inspection Points
  • Fouling or scaling inside narrow plate channels can increase pressure drop and reduce heat transfer
  • Corrosion, erosion or fatigue damage can create internal leakage between circuits, indicated by cross-contamination or unexplained changes in fluid condition
  • External connection leakage caused by damaged joints or piping loads can produce visible fluid loss
  • Freezing, thermal shock or operation outside the approved envelope can damage the plate pack and cause leakage
  • Blocked strainers or inadequate circulation can reduce flow and produce abnormal outlet temperatures
Service: Trend temperatures, pressures and pressure drop and investigate gradual loss of thermal performance. Inspect external surfaces, connections, supports and adjacent piping for leakage, corrosion, vibration and excessive loads. Use an approved flushing or cleaning-in-place method compatible with the exchanger materials and deposits because the bonded plate pack is not normally opened for routine plate replacement. Investigate any indication of internal cross-contamination promptly. Refer to the manufacturer documentation for exact operating and cleaning limits.
Spare Parts: The principal strategic spare may be a complete correctly specified exchanger where vessel redundancy and trading pattern justify it, together with connection seals, strainer elements and approved cleaning consumables. Any replacement must match the exact materials, connections, duty and approved operating envelope.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. T57-30P
T57-30P
Model number
T57-30P
Plate count (min)
30 plates
Plate count (max)
700 plates
Max flow rate
320.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
very large duties, industrial
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
130 plates
Effective flow rate at duty point
320.0 m3/h
Configuration
30P configuration
Common Failures & Inspection Points
  • Plate-channel fouling or scaling caused by contaminated fluid can increase pressure drop and reduce heat-transfer performance
  • Aged, damaged or incorrectly seated gaskets can cause external leakage or mixing at the plate edge
  • Corrosion, erosion or cracking of a plate can cause internal cross-contamination indicated by unexpected fluid quality, tank level or pressure changes
  • Incorrect plate sequence or uneven tightening after maintenance can cause leakage, poor flow distribution or reduced thermal performance
  • Blocked strainers or restricted upstream piping can reduce flow and produce abnormal inlet-to-outlet temperatures
Service: Trend inlet and outlet temperatures, pressures and differential pressure so gradual fouling is detected before the exchanger loses required duty. Inspect the plate-pack edges, frame, tightening bolts, connections and supports for leakage, corrosion, distortion and piping loads. When opened, check plates for deposits, pitting, erosion, cracks and deformation and verify correct plate sequence and gasket seating during reassembly. Use only cleaning methods compatible with the installed plate and gasket materials. Refer to the manufacturer documentation for the exact tightening dimension, allowable pressure, temperature and cleaning limits.
Spare Parts: Carry the exact gasket type used in the installed plate pack, selected spare plates where operationally justified, connection seals and associated strainer elements. Plate and gasket materials must be matched to the exact exchanger configuration and process fluids before ordering.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. T57-60P
T57-60P
Model number
T57-60P
Plate count (min)
30 plates
Plate count (max)
700 plates
Max flow rate
608.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
very large duties, industrial
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
231 plates
Effective flow rate at duty point
608.0 m3/h
Configuration
60P configuration
Common Failures & Inspection Points
  • Plate-channel fouling or scaling caused by contaminated fluid can increase pressure drop and reduce heat-transfer performance
  • Aged, damaged or incorrectly seated gaskets can cause external leakage or mixing at the plate edge
  • Corrosion, erosion or cracking of a plate can cause internal cross-contamination indicated by unexpected fluid quality, tank level or pressure changes
  • Incorrect plate sequence or uneven tightening after maintenance can cause leakage, poor flow distribution or reduced thermal performance
  • Blocked strainers or restricted upstream piping can reduce flow and produce abnormal inlet-to-outlet temperatures
Service: Trend inlet and outlet temperatures, pressures and differential pressure so gradual fouling is detected before the exchanger loses required duty. Inspect the plate-pack edges, frame, tightening bolts, connections and supports for leakage, corrosion, distortion and piping loads. When opened, check plates for deposits, pitting, erosion, cracks and deformation and verify correct plate sequence and gasket seating during reassembly. Use only cleaning methods compatible with the installed plate and gasket materials. Refer to the manufacturer documentation for the exact tightening dimension, allowable pressure, temperature and cleaning limits.
Spare Parts: Carry the exact gasket type used in the installed plate pack, selected spare plates where operationally justified, connection seals and associated strainer elements. Plate and gasket materials must be matched to the exact exchanger configuration and process fluids before ordering.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
T57-90P
Model number
T57-90P
Plate count (min)
30 plates
Plate count (max)
700 plates
Max flow rate
880.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
very large duties, industrial
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
331 plates
Effective flow rate at duty point
880.0 m3/h
Configuration
90P configuration
Common Failures & Inspection Points
  • Plate-channel fouling or scaling caused by contaminated fluid can increase pressure drop and reduce heat-transfer performance
  • Aged, damaged or incorrectly seated gaskets can cause external leakage or mixing at the plate edge
  • Corrosion, erosion or cracking of a plate can cause internal cross-contamination indicated by unexpected fluid quality, tank level or pressure changes
  • Incorrect plate sequence or uneven tightening after maintenance can cause leakage, poor flow distribution or reduced thermal performance
  • Blocked strainers or restricted upstream piping can reduce flow and produce abnormal inlet-to-outlet temperatures
Service: Trend inlet and outlet temperatures, pressures and differential pressure so gradual fouling is detected before the exchanger loses required duty. Inspect the plate-pack edges, frame, tightening bolts, connections and supports for leakage, corrosion, distortion and piping loads. When opened, check plates for deposits, pitting, erosion, cracks and deformation and verify correct plate sequence and gasket seating during reassembly. Use only cleaning methods compatible with the installed plate and gasket materials. Refer to the manufacturer documentation for the exact tightening dimension, allowable pressure, temperature and cleaning limits.
Spare Parts: Carry the exact gasket type used in the installed plate pack, selected spare plates where operationally justified, connection seals and associated strainer elements. Plate and gasket materials must be matched to the exact exchanger configuration and process fluids before ordering.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. T57-120P
T57-120P
Model number
T57-120P
Plate count (min)
30 plates
Plate count (max)
700 plates
Max flow rate
1120.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
very large duties, industrial
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
432 plates
Effective flow rate at duty point
1120.0 m3/h
Configuration
120P configuration
Common Failures & Inspection Points
  • Plate-channel fouling or scaling caused by contaminated fluid can increase pressure drop and reduce heat-transfer performance
  • Aged, damaged or incorrectly seated gaskets can cause external leakage or mixing at the plate edge
  • Corrosion, erosion or cracking of a plate can cause internal cross-contamination indicated by unexpected fluid quality, tank level or pressure changes
  • Incorrect plate sequence or uneven tightening after maintenance can cause leakage, poor flow distribution or reduced thermal performance
  • Blocked strainers or restricted upstream piping can reduce flow and produce abnormal inlet-to-outlet temperatures
Service: Trend inlet and outlet temperatures, pressures and differential pressure so gradual fouling is detected before the exchanger loses required duty. Inspect the plate-pack edges, frame, tightening bolts, connections and supports for leakage, corrosion, distortion and piping loads. When opened, check plates for deposits, pitting, erosion, cracks and deformation and verify correct plate sequence and gasket seating during reassembly. Use only cleaning methods compatible with the installed plate and gasket materials. Refer to the manufacturer documentation for the exact tightening dimension, allowable pressure, temperature and cleaning limits.
Spare Parts: Carry the exact gasket type used in the installed plate pack, selected spare plates where operationally justified, connection seals and associated strainer elements. Plate and gasket materials must be matched to the exact exchanger configuration and process fluids before ordering.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. T57-150P
T57-150P
Model number
T57-150P
Plate count (min)
30 plates
Plate count (max)
700 plates
Max flow rate
1360.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
very large duties, industrial
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
532 plates
Effective flow rate at duty point
1360.0 m3/h
Configuration
150P configuration
Common Failures & Inspection Points
  • Plate-channel fouling or scaling caused by contaminated fluid can increase pressure drop and reduce heat-transfer performance
  • Aged, damaged or incorrectly seated gaskets can cause external leakage or mixing at the plate edge
  • Corrosion, erosion or cracking of a plate can cause internal cross-contamination indicated by unexpected fluid quality, tank level or pressure changes
  • Incorrect plate sequence or uneven tightening after maintenance can cause leakage, poor flow distribution or reduced thermal performance
  • Blocked strainers or restricted upstream piping can reduce flow and produce abnormal inlet-to-outlet temperatures
Service: Trend inlet and outlet temperatures, pressures and differential pressure so gradual fouling is detected before the exchanger loses required duty. Inspect the plate-pack edges, frame, tightening bolts, connections and supports for leakage, corrosion, distortion and piping loads. When opened, check plates for deposits, pitting, erosion, cracks and deformation and verify correct plate sequence and gasket seating during reassembly. Use only cleaning methods compatible with the installed plate and gasket materials. Refer to the manufacturer documentation for the exact tightening dimension, allowable pressure, temperature and cleaning limits.
Spare Parts: Carry the exact gasket type used in the installed plate pack, selected spare plates where operationally justified, connection seals and associated strainer elements. Plate and gasket materials must be matched to the exact exchanger configuration and process fluids before ordering.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. T57-180P
T57-180P
Model number
T57-180P
Plate count (min)
30 plates
Plate count (max)
700 plates
Max flow rate
1520.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
very large duties, industrial
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
633 plates
Effective flow rate at duty point
1520.0 m3/h
Configuration
180P configuration
Common Failures & Inspection Points
  • Plate-channel fouling or scaling caused by contaminated fluid can increase pressure drop and reduce heat-transfer performance
  • Aged, damaged or incorrectly seated gaskets can cause external leakage or mixing at the plate edge
  • Corrosion, erosion or cracking of a plate can cause internal cross-contamination indicated by unexpected fluid quality, tank level or pressure changes
  • Incorrect plate sequence or uneven tightening after maintenance can cause leakage, poor flow distribution or reduced thermal performance
  • Blocked strainers or restricted upstream piping can reduce flow and produce abnormal inlet-to-outlet temperatures
Service: Trend inlet and outlet temperatures, pressures and differential pressure so gradual fouling is detected before the exchanger loses required duty. Inspect the plate-pack edges, frame, tightening bolts, connections and supports for leakage, corrosion, distortion and piping loads. When opened, check plates for deposits, pitting, erosion, cracks and deformation and verify correct plate sequence and gasket seating during reassembly. Use only cleaning methods compatible with the installed plate and gasket materials. Refer to the manufacturer documentation for the exact tightening dimension, allowable pressure, temperature and cleaning limits.
Spare Parts: Carry the exact gasket type used in the installed plate pack, selected spare plates where operationally justified, connection seals and associated strainer elements. Plate and gasket materials must be matched to the exact exchanger configuration and process fluids before ordering.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
T57-MAX
Model number
T57-MAX
Plate count (min)
30 plates
Plate count (max)
700 plates
Max flow rate
1600.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
very large duties, industrial
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
700 plates
Effective flow rate at duty point
1600.0 m3/h
Configuration
MAX configuration
Common Failures & Inspection Points
  • Plate-channel fouling or scaling caused by contaminated fluid can increase pressure drop and reduce heat-transfer performance
  • Aged, damaged or incorrectly seated gaskets can cause external leakage or mixing at the plate edge
  • Corrosion, erosion or cracking of a plate can cause internal cross-contamination indicated by unexpected fluid quality, tank level or pressure changes
  • Incorrect plate sequence or uneven tightening after maintenance can cause leakage, poor flow distribution or reduced thermal performance
  • Blocked strainers or restricted upstream piping can reduce flow and produce abnormal inlet-to-outlet temperatures
Service: Trend inlet and outlet temperatures, pressures and differential pressure so gradual fouling is detected before the exchanger loses required duty. Inspect the plate-pack edges, frame, tightening bolts, connections and supports for leakage, corrosion, distortion and piping loads. When opened, check plates for deposits, pitting, erosion, cracks and deformation and verify correct plate sequence and gasket seating during reassembly. Use only cleaning methods compatible with the installed plate and gasket materials. Refer to the manufacturer documentation for the exact tightening dimension, allowable pressure, temperature and cleaning limits.
Spare Parts: Carry the exact gasket type used in the installed plate pack, selected spare plates where operationally justified, connection seals and associated strainer elements. Plate and gasket materials must be matched to the exact exchanger configuration and process fluids before ordering.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
M3-30P
Model number
M3-30P
Plate count (min)
10 plates
Plate count (max)
100 plates
Max flow rate
2.0 m3/h
Design pressure
10 bar
Max temperature
100 C
Application
compact industrial / HVAC
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
23 plates
Effective flow rate at duty point
2.0 m3/h
Configuration
30P configuration
Common Failures & Inspection Points
  • Plate-channel fouling or scaling caused by contaminated fluid can increase pressure drop and reduce heat-transfer performance
  • Aged, damaged or incorrectly seated gaskets can cause external leakage or mixing at the plate edge
  • Corrosion, erosion or cracking of a plate can cause internal cross-contamination indicated by unexpected fluid quality, tank level or pressure changes
  • Incorrect plate sequence or uneven tightening after maintenance can cause leakage, poor flow distribution or reduced thermal performance
  • Blocked strainers or restricted upstream piping can reduce flow and produce abnormal inlet-to-outlet temperatures
Service: Trend inlet and outlet temperatures, pressures and differential pressure so gradual fouling is detected before the exchanger loses required duty. Inspect the plate-pack edges, frame, tightening bolts, connections and supports for leakage, corrosion, distortion and piping loads. When opened, check plates for deposits, pitting, erosion, cracks and deformation and verify correct plate sequence and gasket seating during reassembly. Use only cleaning methods compatible with the installed plate and gasket materials. Refer to the manufacturer documentation for the exact tightening dimension, allowable pressure, temperature and cleaning limits.
Spare Parts: Carry the exact gasket type used in the installed plate pack, selected spare plates where operationally justified, connection seals and associated strainer elements. Plate and gasket materials must be matched to the exact exchanger configuration and process fluids before ordering.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
M3-60P
Model number
M3-60P
Plate count (min)
10 plates
Plate count (max)
100 plates
Max flow rate
3.8 m3/h
Design pressure
10 bar
Max temperature
100 C
Application
compact industrial / HVAC
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
37 plates
Effective flow rate at duty point
3.8 m3/h
Configuration
60P configuration
Common Failures & Inspection Points
  • Plate-channel fouling or scaling caused by contaminated fluid can increase pressure drop and reduce heat-transfer performance
  • Aged, damaged or incorrectly seated gaskets can cause external leakage or mixing at the plate edge
  • Corrosion, erosion or cracking of a plate can cause internal cross-contamination indicated by unexpected fluid quality, tank level or pressure changes
  • Incorrect plate sequence or uneven tightening after maintenance can cause leakage, poor flow distribution or reduced thermal performance
  • Blocked strainers or restricted upstream piping can reduce flow and produce abnormal inlet-to-outlet temperatures
Service: Trend inlet and outlet temperatures, pressures and differential pressure so gradual fouling is detected before the exchanger loses required duty. Inspect the plate-pack edges, frame, tightening bolts, connections and supports for leakage, corrosion, distortion and piping loads. When opened, check plates for deposits, pitting, erosion, cracks and deformation and verify correct plate sequence and gasket seating during reassembly. Use only cleaning methods compatible with the installed plate and gasket materials. Refer to the manufacturer documentation for the exact tightening dimension, allowable pressure, temperature and cleaning limits.
Spare Parts: Carry the exact gasket type used in the installed plate pack, selected spare plates where operationally justified, connection seals and associated strainer elements. Plate and gasket materials must be matched to the exact exchanger configuration and process fluids before ordering.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
M3-90P
Model number
M3-90P
Plate count (min)
10 plates
Plate count (max)
100 plates
Max flow rate
5.5 m3/h
Design pressure
10 bar
Max temperature
100 C
Application
compact industrial / HVAC
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
50 plates
Effective flow rate at duty point
5.5 m3/h
Configuration
90P configuration
Common Failures & Inspection Points
  • Plate-channel fouling or scaling caused by contaminated fluid can increase pressure drop and reduce heat-transfer performance
  • Aged, damaged or incorrectly seated gaskets can cause external leakage or mixing at the plate edge
  • Corrosion, erosion or cracking of a plate can cause internal cross-contamination indicated by unexpected fluid quality, tank level or pressure changes
  • Incorrect plate sequence or uneven tightening after maintenance can cause leakage, poor flow distribution or reduced thermal performance
  • Blocked strainers or restricted upstream piping can reduce flow and produce abnormal inlet-to-outlet temperatures
Service: Trend inlet and outlet temperatures, pressures and differential pressure so gradual fouling is detected before the exchanger loses required duty. Inspect the plate-pack edges, frame, tightening bolts, connections and supports for leakage, corrosion, distortion and piping loads. When opened, check plates for deposits, pitting, erosion, cracks and deformation and verify correct plate sequence and gasket seating during reassembly. Use only cleaning methods compatible with the installed plate and gasket materials. Refer to the manufacturer documentation for the exact tightening dimension, allowable pressure, temperature and cleaning limits.
Spare Parts: Carry the exact gasket type used in the installed plate pack, selected spare plates where operationally justified, connection seals and associated strainer elements. Plate and gasket materials must be matched to the exact exchanger configuration and process fluids before ordering.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
M3-120P
Model number
M3-120P
Plate count (min)
10 plates
Plate count (max)
100 plates
Max flow rate
7.0 m3/h
Design pressure
10 bar
Max temperature
100 C
Application
compact industrial / HVAC
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
64 plates
Effective flow rate at duty point
7.0 m3/h
Configuration
120P configuration
Common Failures & Inspection Points
  • Plate-channel fouling or scaling caused by contaminated fluid can increase pressure drop and reduce heat-transfer performance
  • Aged, damaged or incorrectly seated gaskets can cause external leakage or mixing at the plate edge
  • Corrosion, erosion or cracking of a plate can cause internal cross-contamination indicated by unexpected fluid quality, tank level or pressure changes
  • Incorrect plate sequence or uneven tightening after maintenance can cause leakage, poor flow distribution or reduced thermal performance
  • Blocked strainers or restricted upstream piping can reduce flow and produce abnormal inlet-to-outlet temperatures
Service: Trend inlet and outlet temperatures, pressures and differential pressure so gradual fouling is detected before the exchanger loses required duty. Inspect the plate-pack edges, frame, tightening bolts, connections and supports for leakage, corrosion, distortion and piping loads. When opened, check plates for deposits, pitting, erosion, cracks and deformation and verify correct plate sequence and gasket seating during reassembly. Use only cleaning methods compatible with the installed plate and gasket materials. Refer to the manufacturer documentation for the exact tightening dimension, allowable pressure, temperature and cleaning limits.
Spare Parts: Carry the exact gasket type used in the installed plate pack, selected spare plates where operationally justified, connection seals and associated strainer elements. Plate and gasket materials must be matched to the exact exchanger configuration and process fluids before ordering.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
M3-150P
Model number
M3-150P
Plate count (min)
10 plates
Plate count (max)
100 plates
Max flow rate
8.5 m3/h
Design pressure
10 bar
Max temperature
100 C
Application
compact industrial / HVAC
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
77 plates
Effective flow rate at duty point
8.5 m3/h
Configuration
150P configuration
Common Failures & Inspection Points
  • Plate-channel fouling or scaling caused by contaminated fluid can increase pressure drop and reduce heat-transfer performance
  • Aged, damaged or incorrectly seated gaskets can cause external leakage or mixing at the plate edge
  • Corrosion, erosion or cracking of a plate can cause internal cross-contamination indicated by unexpected fluid quality, tank level or pressure changes
  • Incorrect plate sequence or uneven tightening after maintenance can cause leakage, poor flow distribution or reduced thermal performance
  • Blocked strainers or restricted upstream piping can reduce flow and produce abnormal inlet-to-outlet temperatures
Service: Trend inlet and outlet temperatures, pressures and differential pressure so gradual fouling is detected before the exchanger loses required duty. Inspect the plate-pack edges, frame, tightening bolts, connections and supports for leakage, corrosion, distortion and piping loads. When opened, check plates for deposits, pitting, erosion, cracks and deformation and verify correct plate sequence and gasket seating during reassembly. Use only cleaning methods compatible with the installed plate and gasket materials. Refer to the manufacturer documentation for the exact tightening dimension, allowable pressure, temperature and cleaning limits.
Spare Parts: Carry the exact gasket type used in the installed plate pack, selected spare plates where operationally justified, connection seals and associated strainer elements. Plate and gasket materials must be matched to the exact exchanger configuration and process fluids before ordering.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
M3-180P
Model number
M3-180P
Plate count (min)
10 plates
Plate count (max)
100 plates
Max flow rate
9.5 m3/h
Design pressure
10 bar
Max temperature
100 C
Application
compact industrial / HVAC
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
91 plates
Effective flow rate at duty point
9.5 m3/h
Configuration
180P configuration
Common Failures & Inspection Points
  • Plate-channel fouling or scaling caused by contaminated fluid can increase pressure drop and reduce heat-transfer performance
  • Aged, damaged or incorrectly seated gaskets can cause external leakage or mixing at the plate edge
  • Corrosion, erosion or cracking of a plate can cause internal cross-contamination indicated by unexpected fluid quality, tank level or pressure changes
  • Incorrect plate sequence or uneven tightening after maintenance can cause leakage, poor flow distribution or reduced thermal performance
  • Blocked strainers or restricted upstream piping can reduce flow and produce abnormal inlet-to-outlet temperatures
Service: Trend inlet and outlet temperatures, pressures and differential pressure so gradual fouling is detected before the exchanger loses required duty. Inspect the plate-pack edges, frame, tightening bolts, connections and supports for leakage, corrosion, distortion and piping loads. When opened, check plates for deposits, pitting, erosion, cracks and deformation and verify correct plate sequence and gasket seating during reassembly. Use only cleaning methods compatible with the installed plate and gasket materials. Refer to the manufacturer documentation for the exact tightening dimension, allowable pressure, temperature and cleaning limits.
Spare Parts: Carry the exact gasket type used in the installed plate pack, selected spare plates where operationally justified, connection seals and associated strainer elements. Plate and gasket materials must be matched to the exact exchanger configuration and process fluids before ordering.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
M3-MAX
Model number
M3-MAX
Plate count (min)
10 plates
Plate count (max)
100 plates
Max flow rate
10.0 m3/h
Design pressure
10 bar
Max temperature
100 C
Application
compact industrial / HVAC
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
100 plates
Effective flow rate at duty point
10.0 m3/h
Configuration
MAX configuration
Common Failures & Inspection Points
  • Plate-channel fouling or scaling caused by contaminated fluid can increase pressure drop and reduce heat-transfer performance
  • Aged, damaged or incorrectly seated gaskets can cause external leakage or mixing at the plate edge
  • Corrosion, erosion or cracking of a plate can cause internal cross-contamination indicated by unexpected fluid quality, tank level or pressure changes
  • Incorrect plate sequence or uneven tightening after maintenance can cause leakage, poor flow distribution or reduced thermal performance
  • Blocked strainers or restricted upstream piping can reduce flow and produce abnormal inlet-to-outlet temperatures
Service: Trend inlet and outlet temperatures, pressures and differential pressure so gradual fouling is detected before the exchanger loses required duty. Inspect the plate-pack edges, frame, tightening bolts, connections and supports for leakage, corrosion, distortion and piping loads. When opened, check plates for deposits, pitting, erosion, cracks and deformation and verify correct plate sequence and gasket seating during reassembly. Use only cleaning methods compatible with the installed plate and gasket materials. Refer to the manufacturer documentation for the exact tightening dimension, allowable pressure, temperature and cleaning limits.
Spare Parts: Carry the exact gasket type used in the installed plate pack, selected spare plates where operationally justified, connection seals and associated strainer elements. Plate and gasket materials must be matched to the exact exchanger configuration and process fluids before ordering.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. M6-30P
M6-30P
Model number
M6-30P
Plate count (min)
10 plates
Plate count (max)
200 plates
Max flow rate
7.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
industrial heating, marine HVAC
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
38 plates
Effective flow rate at duty point
7.0 m3/h
Configuration
30P configuration
Common Failures & Inspection Points
  • Plate-channel fouling or scaling caused by contaminated fluid can increase pressure drop and reduce heat-transfer performance
  • Aged, damaged or incorrectly seated gaskets can cause external leakage or mixing at the plate edge
  • Corrosion, erosion or cracking of a plate can cause internal cross-contamination indicated by unexpected fluid quality, tank level or pressure changes
  • Incorrect plate sequence or uneven tightening after maintenance can cause leakage, poor flow distribution or reduced thermal performance
  • Blocked strainers or restricted upstream piping can reduce flow and produce abnormal inlet-to-outlet temperatures
Service: Trend inlet and outlet temperatures, pressures and differential pressure so gradual fouling is detected before the exchanger loses required duty. Inspect the plate-pack edges, frame, tightening bolts, connections and supports for leakage, corrosion, distortion and piping loads. When opened, check plates for deposits, pitting, erosion, cracks and deformation and verify correct plate sequence and gasket seating during reassembly. Use only cleaning methods compatible with the installed plate and gasket materials. Refer to the manufacturer documentation for the exact tightening dimension, allowable pressure, temperature and cleaning limits.
Spare Parts: Carry the exact gasket type used in the installed plate pack, selected spare plates where operationally justified, connection seals and associated strainer elements. Plate and gasket materials must be matched to the exact exchanger configuration and process fluids before ordering.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
M6-60P
Model number
M6-60P
Plate count (min)
10 plates
Plate count (max)
200 plates
Max flow rate
13.3 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
industrial heating, marine HVAC
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
67 plates
Effective flow rate at duty point
13.3 m3/h
Configuration
60P configuration
Common Failures & Inspection Points
  • Plate-channel fouling or scaling caused by contaminated fluid can increase pressure drop and reduce heat-transfer performance
  • Aged, damaged or incorrectly seated gaskets can cause external leakage or mixing at the plate edge
  • Corrosion, erosion or cracking of a plate can cause internal cross-contamination indicated by unexpected fluid quality, tank level or pressure changes
  • Incorrect plate sequence or uneven tightening after maintenance can cause leakage, poor flow distribution or reduced thermal performance
  • Blocked strainers or restricted upstream piping can reduce flow and produce abnormal inlet-to-outlet temperatures
Service: Trend inlet and outlet temperatures, pressures and differential pressure so gradual fouling is detected before the exchanger loses required duty. Inspect the plate-pack edges, frame, tightening bolts, connections and supports for leakage, corrosion, distortion and piping loads. When opened, check plates for deposits, pitting, erosion, cracks and deformation and verify correct plate sequence and gasket seating during reassembly. Use only cleaning methods compatible with the installed plate and gasket materials. Refer to the manufacturer documentation for the exact tightening dimension, allowable pressure, temperature and cleaning limits.
Spare Parts: Carry the exact gasket type used in the installed plate pack, selected spare plates where operationally justified, connection seals and associated strainer elements. Plate and gasket materials must be matched to the exact exchanger configuration and process fluids before ordering.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. M6-90P
M6-90P
Model number
M6-90P
Plate count (min)
10 plates
Plate count (max)
200 plates
Max flow rate
19.2 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
industrial heating, marine HVAC
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
95 plates
Effective flow rate at duty point
19.2 m3/h
Configuration
90P configuration
Common Failures & Inspection Points
  • Plate-channel fouling or scaling caused by contaminated fluid can increase pressure drop and reduce heat-transfer performance
  • Aged, damaged or incorrectly seated gaskets can cause external leakage or mixing at the plate edge
  • Corrosion, erosion or cracking of a plate can cause internal cross-contamination indicated by unexpected fluid quality, tank level or pressure changes
  • Incorrect plate sequence or uneven tightening after maintenance can cause leakage, poor flow distribution or reduced thermal performance
  • Blocked strainers or restricted upstream piping can reduce flow and produce abnormal inlet-to-outlet temperatures
Service: Trend inlet and outlet temperatures, pressures and differential pressure so gradual fouling is detected before the exchanger loses required duty. Inspect the plate-pack edges, frame, tightening bolts, connections and supports for leakage, corrosion, distortion and piping loads. When opened, check plates for deposits, pitting, erosion, cracks and deformation and verify correct plate sequence and gasket seating during reassembly. Use only cleaning methods compatible with the installed plate and gasket materials. Refer to the manufacturer documentation for the exact tightening dimension, allowable pressure, temperature and cleaning limits.
Spare Parts: Carry the exact gasket type used in the installed plate pack, selected spare plates where operationally justified, connection seals and associated strainer elements. Plate and gasket materials must be matched to the exact exchanger configuration and process fluids before ordering.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. M6-120P
M6-120P
Model number
M6-120P
Plate count (min)
10 plates
Plate count (max)
200 plates
Max flow rate
24.5 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
industrial heating, marine HVAC
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
124 plates
Effective flow rate at duty point
24.5 m3/h
Configuration
120P configuration
Common Failures & Inspection Points
  • Plate-channel fouling or scaling caused by contaminated fluid can increase pressure drop and reduce heat-transfer performance
  • Aged, damaged or incorrectly seated gaskets can cause external leakage or mixing at the plate edge
  • Corrosion, erosion or cracking of a plate can cause internal cross-contamination indicated by unexpected fluid quality, tank level or pressure changes
  • Incorrect plate sequence or uneven tightening after maintenance can cause leakage, poor flow distribution or reduced thermal performance
  • Blocked strainers or restricted upstream piping can reduce flow and produce abnormal inlet-to-outlet temperatures
Service: Trend inlet and outlet temperatures, pressures and differential pressure so gradual fouling is detected before the exchanger loses required duty. Inspect the plate-pack edges, frame, tightening bolts, connections and supports for leakage, corrosion, distortion and piping loads. When opened, check plates for deposits, pitting, erosion, cracks and deformation and verify correct plate sequence and gasket seating during reassembly. Use only cleaning methods compatible with the installed plate and gasket materials. Refer to the manufacturer documentation for the exact tightening dimension, allowable pressure, temperature and cleaning limits.
Spare Parts: Carry the exact gasket type used in the installed plate pack, selected spare plates where operationally justified, connection seals and associated strainer elements. Plate and gasket materials must be matched to the exact exchanger configuration and process fluids before ordering.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
M6-150P
Model number
M6-150P
Plate count (min)
10 plates
Plate count (max)
200 plates
Max flow rate
29.8 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
industrial heating, marine HVAC
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
152 plates
Effective flow rate at duty point
29.8 m3/h
Configuration
150P configuration
Common Failures & Inspection Points
  • Plate-channel fouling or scaling caused by contaminated fluid can increase pressure drop and reduce heat-transfer performance
  • Aged, damaged or incorrectly seated gaskets can cause external leakage or mixing at the plate edge
  • Corrosion, erosion or cracking of a plate can cause internal cross-contamination indicated by unexpected fluid quality, tank level or pressure changes
  • Incorrect plate sequence or uneven tightening after maintenance can cause leakage, poor flow distribution or reduced thermal performance
  • Blocked strainers or restricted upstream piping can reduce flow and produce abnormal inlet-to-outlet temperatures
Service: Trend inlet and outlet temperatures, pressures and differential pressure so gradual fouling is detected before the exchanger loses required duty. Inspect the plate-pack edges, frame, tightening bolts, connections and supports for leakage, corrosion, distortion and piping loads. When opened, check plates for deposits, pitting, erosion, cracks and deformation and verify correct plate sequence and gasket seating during reassembly. Use only cleaning methods compatible with the installed plate and gasket materials. Refer to the manufacturer documentation for the exact tightening dimension, allowable pressure, temperature and cleaning limits.
Spare Parts: Carry the exact gasket type used in the installed plate pack, selected spare plates where operationally justified, connection seals and associated strainer elements. Plate and gasket materials must be matched to the exact exchanger configuration and process fluids before ordering.
Use Cases: Used in central cooling, jacket-water cooling, lubricating-oil cooling, HVAC, heating, heat-recovery and other marine liquid heat-transfer duties when the selected materials and design limits suit the service.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. M6-180P
M6-180P
Model number
M6-180P
Plate count (min)
10 plates
Plate count (max)
200 plates
Max flow rate
33.2 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
industrial heating, marine HVAC
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
181 plates
Effective flow rate at duty point
33.2 m3/h
Configuration
180P configuration
Manufacturer Datasheet
Datasheet
M6-MAX
Model number
M6-MAX
Plate count (min)
10 plates
Plate count (max)
200 plates
Max flow rate
35.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
industrial heating, marine HVAC
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
200 plates
Effective flow rate at duty point
35.0 m3/h
Configuration
MAX configuration
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. M6-MFG
M6-MFG
Model number
M6-MFG
Plate count (min)
10 plates
Plate count (max)
200 plates
Max flow rate
40.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
industrial heating, marine HVAC
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. M6-MFG-30P
M6-MFG-30P
Model number
M6-MFG-30P
Plate count (min)
10 plates
Plate count (max)
200 plates
Max flow rate
8.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
industrial heating, marine HVAC
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
38 plates
Effective flow rate at duty point
8.0 m3/h
Configuration
30P configuration
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. M6-MFG-60P
M6-MFG-60P
Model number
M6-MFG-60P
Plate count (min)
10 plates
Plate count (max)
200 plates
Max flow rate
15.2 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
industrial heating, marine HVAC
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
67 plates
Effective flow rate at duty point
15.2 m3/h
Configuration
60P configuration
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. M6-MFG-90P
M6-MFG-90P
Model number
M6-MFG-90P
Plate count (min)
10 plates
Plate count (max)
200 plates
Max flow rate
22.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
industrial heating, marine HVAC
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
95 plates
Effective flow rate at duty point
22.0 m3/h
Configuration
90P configuration
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. M6-MFG-120P
M6-MFG-120P
Model number
M6-MFG-120P
Plate count (min)
10 plates
Plate count (max)
200 plates
Max flow rate
28.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
industrial heating, marine HVAC
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
124 plates
Effective flow rate at duty point
28.0 m3/h
Configuration
120P configuration
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. M6-MFG-150P
M6-MFG-150P
Model number
M6-MFG-150P
Plate count (min)
10 plates
Plate count (max)
200 plates
Max flow rate
34.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
industrial heating, marine HVAC
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
152 plates
Effective flow rate at duty point
34.0 m3/h
Configuration
150P configuration
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. M6-MFG-180P
M6-MFG-180P
Model number
M6-MFG-180P
Plate count (min)
10 plates
Plate count (max)
200 plates
Max flow rate
38.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
industrial heating, marine HVAC
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
181 plates
Effective flow rate at duty point
38.0 m3/h
Configuration
180P configuration
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. M6-MFG-MAX
M6-MFG-MAX
Model number
M6-MFG-MAX
Plate count (min)
10 plates
Plate count (max)
200 plates
Max flow rate
40.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
industrial heating, marine HVAC
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
200 plates
Effective flow rate at duty point
40.0 m3/h
Configuration
MAX configuration
Manufacturer Datasheet
Datasheet
M6-MFM
Model number
M6-MFM
Plate count (min)
10 plates
Plate count (max)
200 plates
Max flow rate
35.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
industrial heating, marine HVAC
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Manufacturer Datasheet
Datasheet
M6-MFM-30P
Model number
M6-MFM-30P
Plate count (min)
10 plates
Plate count (max)
200 plates
Max flow rate
7.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
industrial heating, marine HVAC
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
38 plates
Effective flow rate at duty point
7.0 m3/h
Configuration
30P configuration
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. M6-MFM-60P
M6-MFM-60P
Model number
M6-MFM-60P
Plate count (min)
10 plates
Plate count (max)
200 plates
Max flow rate
13.3 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
industrial heating, marine HVAC
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
67 plates
Effective flow rate at duty point
13.3 m3/h
Configuration
60P configuration
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. M6-MFM-90P
M6-MFM-90P
Model number
M6-MFM-90P
Plate count (min)
10 plates
Plate count (max)
200 plates
Max flow rate
19.2 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
industrial heating, marine HVAC
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
95 plates
Effective flow rate at duty point
19.2 m3/h
Configuration
90P configuration
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. M6-MFM-120P
M6-MFM-120P
Model number
M6-MFM-120P
Plate count (min)
10 plates
Plate count (max)
200 plates
Max flow rate
24.5 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
industrial heating, marine HVAC
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
124 plates
Effective flow rate at duty point
24.5 m3/h
Configuration
120P configuration
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. M6-MFM-150P
M6-MFM-150P
Model number
M6-MFM-150P
Plate count (min)
10 plates
Plate count (max)
200 plates
Max flow rate
29.8 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
industrial heating, marine HVAC
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
152 plates
Effective flow rate at duty point
29.8 m3/h
Configuration
150P configuration
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. M6-MFM-180P
M6-MFM-180P
Model number
M6-MFM-180P
Plate count (min)
10 plates
Plate count (max)
200 plates
Max flow rate
33.2 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
industrial heating, marine HVAC
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
181 plates
Effective flow rate at duty point
33.2 m3/h
Configuration
180P configuration
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. M6-MFM-MAX
M6-MFM-MAX
Model number
M6-MFM-MAX
Plate count (min)
10 plates
Plate count (max)
200 plates
Max flow rate
35.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
industrial heating, marine HVAC
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
200 plates
Effective flow rate at duty point
35.0 m3/h
Configuration
MAX configuration
Manufacturer Datasheet
Datasheet
M10
Model number
M10
Plate count (min)
10 plates
Plate count (max)
250 plates
Max flow rate
100.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine central cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Manufacturer Datasheet
Datasheet
M10-30P
Model number
M10-30P
Plate count (min)
10 plates
Plate count (max)
250 plates
Max flow rate
20.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine central cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
46 plates
Effective flow rate at duty point
20.0 m3/h
Configuration
30P configuration
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. M10-60P
M10-60P
Model number
M10-60P
Plate count (min)
10 plates
Plate count (max)
250 plates
Max flow rate
38.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine central cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
82 plates
Effective flow rate at duty point
38.0 m3/h
Configuration
60P configuration
Manufacturer Datasheet
Datasheet
M10-90P
Model number
M10-90P
Plate count (min)
10 plates
Plate count (max)
250 plates
Max flow rate
55.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine central cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
118 plates
Effective flow rate at duty point
55.0 m3/h
Configuration
90P configuration
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. M10-120P
M10-120P
Model number
M10-120P
Plate count (min)
10 plates
Plate count (max)
250 plates
Max flow rate
70.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine central cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
154 plates
Effective flow rate at duty point
70.0 m3/h
Configuration
120P configuration
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. M10-150P
M10-150P
Model number
M10-150P
Plate count (min)
10 plates
Plate count (max)
250 plates
Max flow rate
85.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine central cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
190 plates
Effective flow rate at duty point
85.0 m3/h
Configuration
150P configuration
Manufacturer Datasheet
Datasheet
M10-180P
Model number
M10-180P
Plate count (min)
10 plates
Plate count (max)
250 plates
Max flow rate
95.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine central cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
226 plates
Effective flow rate at duty point
95.0 m3/h
Configuration
180P configuration
Manufacturer Datasheet
Datasheet
M10-MAX
Model number
M10-MAX
Plate count (min)
10 plates
Plate count (max)
250 plates
Max flow rate
100.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine central cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
250 plates
Effective flow rate at duty point
100.0 m3/h
Configuration
MAX configuration
Manufacturer Datasheet
Datasheet
M10-BFG-30P
Model number
M10-BFG-30P
Plate count (min)
10 plates
Plate count (max)
250 plates
Max flow rate
22.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine central cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
46 plates
Effective flow rate at duty point
22.0 m3/h
Configuration
30P configuration
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. M10-BFG-60P
M10-BFG-60P
Model number
M10-BFG-60P
Plate count (min)
10 plates
Plate count (max)
250 plates
Max flow rate
41.8 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine central cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
82 plates
Effective flow rate at duty point
41.8 m3/h
Configuration
60P configuration
Manufacturer Datasheet
Datasheet
M10-BFG-90P
Model number
M10-BFG-90P
Plate count (min)
10 plates
Plate count (max)
250 plates
Max flow rate
60.5 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine central cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
118 plates
Effective flow rate at duty point
60.5 m3/h
Configuration
90P configuration
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. M10-BFG-120P
M10-BFG-120P
Model number
M10-BFG-120P
Plate count (min)
10 plates
Plate count (max)
250 plates
Max flow rate
77.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine central cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
154 plates
Effective flow rate at duty point
77.0 m3/h
Configuration
120P configuration
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. M10-BFG-150P
M10-BFG-150P
Model number
M10-BFG-150P
Plate count (min)
10 plates
Plate count (max)
250 plates
Max flow rate
93.5 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine central cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
190 plates
Effective flow rate at duty point
93.5 m3/h
Configuration
150P configuration
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. M10-BFG-180P
M10-BFG-180P
Model number
M10-BFG-180P
Plate count (min)
10 plates
Plate count (max)
250 plates
Max flow rate
104.5 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine central cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
226 plates
Effective flow rate at duty point
104.5 m3/h
Configuration
180P configuration
Manufacturer Datasheet
Datasheet
M10-BFG-MAX
Model number
M10-BFG-MAX
Plate count (min)
10 plates
Plate count (max)
250 plates
Max flow rate
110.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine central cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
250 plates
Effective flow rate at duty point
110.0 m3/h
Configuration
MAX configuration
Manufacturer Datasheet
Datasheet
M10-BFM
Model number
M10-BFM
Plate count (min)
10 plates
Plate count (max)
250 plates
Max flow rate
100.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine central cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Manufacturer Datasheet
Datasheet
M10-BFM-30P
Model number
M10-BFM-30P
Plate count (min)
10 plates
Plate count (max)
250 plates
Max flow rate
20.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine central cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
46 plates
Effective flow rate at duty point
20.0 m3/h
Configuration
30P configuration
Manufacturer Datasheet
Datasheet
M10-BFM-60P
Model number
M10-BFM-60P
Plate count (min)
10 plates
Plate count (max)
250 plates
Max flow rate
38.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine central cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
82 plates
Effective flow rate at duty point
38.0 m3/h
Configuration
60P configuration
Manufacturer Datasheet
Datasheet
M10-BFM-90P
Model number
M10-BFM-90P
Plate count (min)
10 plates
Plate count (max)
250 plates
Max flow rate
55.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine central cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
118 plates
Effective flow rate at duty point
55.0 m3/h
Configuration
90P configuration
Manufacturer Datasheet
Datasheet
M10-BFM-120P
Model number
M10-BFM-120P
Plate count (min)
10 plates
Plate count (max)
250 plates
Max flow rate
70.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine central cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
154 plates
Effective flow rate at duty point
70.0 m3/h
Configuration
120P configuration
Manufacturer Datasheet
Datasheet
M10-BFM-150P
Model number
M10-BFM-150P
Plate count (min)
10 plates
Plate count (max)
250 plates
Max flow rate
85.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine central cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
190 plates
Effective flow rate at duty point
85.0 m3/h
Configuration
150P configuration
Manufacturer Datasheet
Datasheet
M10-BFM-180P
Model number
M10-BFM-180P
Plate count (min)
10 plates
Plate count (max)
250 plates
Max flow rate
95.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine central cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
226 plates
Effective flow rate at duty point
95.0 m3/h
Configuration
180P configuration
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. M10-BFM-MAX
M10-BFM-MAX
Model number
M10-BFM-MAX
Plate count (min)
10 plates
Plate count (max)
250 plates
Max flow rate
100.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine central cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
250 plates
Effective flow rate at duty point
100.0 m3/h
Configuration
MAX configuration
Manufacturer Datasheet
Datasheet
M10-MFG-30P
Model number
M10-MFG-30P
Plate count (min)
10 plates
Plate count (max)
250 plates
Max flow rate
22.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine central cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
46 plates
Effective flow rate at duty point
22.0 m3/h
Configuration
30P configuration
Manufacturer Datasheet
Datasheet
M10-MFG-60P
Model number
M10-MFG-60P
Plate count (min)
10 plates
Plate count (max)
250 plates
Max flow rate
41.8 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine central cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
82 plates
Effective flow rate at duty point
41.8 m3/h
Configuration
60P configuration
Manufacturer Datasheet
Datasheet
M10-MFG-90P
Model number
M10-MFG-90P
Plate count (min)
10 plates
Plate count (max)
250 plates
Max flow rate
60.5 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine central cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
118 plates
Effective flow rate at duty point
60.5 m3/h
Configuration
90P configuration
Manufacturer Datasheet
Datasheet
M10-MFG-120P
Model number
M10-MFG-120P
Plate count (min)
10 plates
Plate count (max)
250 plates
Max flow rate
77.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine central cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
154 plates
Effective flow rate at duty point
77.0 m3/h
Configuration
120P configuration
Manufacturer Datasheet
Datasheet
M10-MFG-150P
Model number
M10-MFG-150P
Plate count (min)
10 plates
Plate count (max)
250 plates
Max flow rate
93.5 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine central cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
190 plates
Effective flow rate at duty point
93.5 m3/h
Configuration
150P configuration
Manufacturer Datasheet
Datasheet
M10-MFG-180P
Model number
M10-MFG-180P
Plate count (min)
10 plates
Plate count (max)
250 plates
Max flow rate
104.5 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine central cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
226 plates
Effective flow rate at duty point
104.5 m3/h
Configuration
180P configuration
Manufacturer Datasheet
Datasheet
M10-MFG-MAX
Model number
M10-MFG-MAX
Plate count (min)
10 plates
Plate count (max)
250 plates
Max flow rate
110.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine central cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
250 plates
Effective flow rate at duty point
110.0 m3/h
Configuration
MAX configuration
Manufacturer Datasheet
Datasheet
M10-MFM
Model number
M10-MFM
Plate count (min)
10 plates
Plate count (max)
250 plates
Max flow rate
100.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine central cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Manufacturer Datasheet
Datasheet
M10-MFM-30P
Model number
M10-MFM-30P
Plate count (min)
10 plates
Plate count (max)
250 plates
Max flow rate
20.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine central cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
46 plates
Effective flow rate at duty point
20.0 m3/h
Configuration
30P configuration
Manufacturer Datasheet
Datasheet
M10-MFM-60P
Model number
M10-MFM-60P
Plate count (min)
10 plates
Plate count (max)
250 plates
Max flow rate
38.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine central cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
82 plates
Effective flow rate at duty point
38.0 m3/h
Configuration
60P configuration
Manufacturer Datasheet
Datasheet
M10-MFM-90P
Model number
M10-MFM-90P
Plate count (min)
10 plates
Plate count (max)
250 plates
Max flow rate
55.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine central cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
118 plates
Effective flow rate at duty point
55.0 m3/h
Configuration
90P configuration
Manufacturer Datasheet
Datasheet
M10-MFM-120P
Model number
M10-MFM-120P
Plate count (min)
10 plates
Plate count (max)
250 plates
Max flow rate
70.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine central cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
154 plates
Effective flow rate at duty point
70.0 m3/h
Configuration
120P configuration
Manufacturer Datasheet
Datasheet
M10-MFM-150P
Model number
M10-MFM-150P
Plate count (min)
10 plates
Plate count (max)
250 plates
Max flow rate
85.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine central cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
190 plates
Effective flow rate at duty point
85.0 m3/h
Configuration
150P configuration
Manufacturer Datasheet
Datasheet
M10-MFM-180P
Model number
M10-MFM-180P
Plate count (min)
10 plates
Plate count (max)
250 plates
Max flow rate
95.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine central cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
226 plates
Effective flow rate at duty point
95.0 m3/h
Configuration
180P configuration
Manufacturer Datasheet
Datasheet
M10-MFM-MAX
Model number
M10-MFM-MAX
Plate count (min)
10 plates
Plate count (max)
250 plates
Max flow rate
100.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine central cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
250 plates
Effective flow rate at duty point
100.0 m3/h
Configuration
MAX configuration
Manufacturer Datasheet
Datasheet
M15
Model number
M15
Plate count (min)
16 plates
Plate count (max)
300 plates
Max flow rate
200.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine engine cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Manufacturer Datasheet
Datasheet
M15-30P
Model number
M15-30P
Plate count (min)
16 plates
Plate count (max)
300 plates
Max flow rate
40.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine engine cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
58 plates
Effective flow rate at duty point
40.0 m3/h
Configuration
30P configuration
Manufacturer Datasheet
Datasheet
M15-60P
Model number
M15-60P
Plate count (min)
16 plates
Plate count (max)
300 plates
Max flow rate
76.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine engine cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
101 plates
Effective flow rate at duty point
76.0 m3/h
Configuration
60P configuration
Manufacturer Datasheet
Datasheet
M15-90P
Model number
M15-90P
Plate count (min)
16 plates
Plate count (max)
300 plates
Max flow rate
110.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine engine cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
143 plates
Effective flow rate at duty point
110.0 m3/h
Configuration
90P configuration
Manufacturer Datasheet
Datasheet
M15-120P
Model number
M15-120P
Plate count (min)
16 plates
Plate count (max)
300 plates
Max flow rate
140.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine engine cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
186 plates
Effective flow rate at duty point
140.0 m3/h
Configuration
120P configuration
Manufacturer Datasheet
Datasheet
M15-150P
Model number
M15-150P
Plate count (min)
16 plates
Plate count (max)
300 plates
Max flow rate
170.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine engine cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
229 plates
Effective flow rate at duty point
170.0 m3/h
Configuration
150P configuration
Manufacturer Datasheet
Datasheet
M15-180P
Model number
M15-180P
Plate count (min)
16 plates
Plate count (max)
300 plates
Max flow rate
190.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine engine cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
271 plates
Effective flow rate at duty point
190.0 m3/h
Configuration
180P configuration
Manufacturer Datasheet
Datasheet
M15-MAX
Model number
M15-MAX
Plate count (min)
16 plates
Plate count (max)
300 plates
Max flow rate
200.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine engine cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
300 plates
Effective flow rate at duty point
200.0 m3/h
Configuration
MAX configuration
Manufacturer Datasheet
Datasheet
M15-BFG
Model number
M15-BFG
Plate count (min)
16 plates
Plate count (max)
300 plates
Max flow rate
220.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine engine cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Manufacturer Datasheet
Datasheet
M15-BFG-30P
Model number
M15-BFG-30P
Plate count (min)
16 plates
Plate count (max)
300 plates
Max flow rate
44.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine engine cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
58 plates
Effective flow rate at duty point
44.0 m3/h
Configuration
30P configuration
Manufacturer Datasheet
Datasheet
M15-BFG-60P
Model number
M15-BFG-60P
Plate count (min)
16 plates
Plate count (max)
300 plates
Max flow rate
83.6 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine engine cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
101 plates
Effective flow rate at duty point
83.6 m3/h
Configuration
60P configuration
Manufacturer Datasheet
Datasheet
M15-BFG-90P
Model number
M15-BFG-90P
Plate count (min)
16 plates
Plate count (max)
300 plates
Max flow rate
121.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine engine cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
143 plates
Effective flow rate at duty point
121.0 m3/h
Configuration
90P configuration
Manufacturer Datasheet
Datasheet
M15-BFG-120P
Model number
M15-BFG-120P
Plate count (min)
16 plates
Plate count (max)
300 plates
Max flow rate
154.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine engine cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
186 plates
Effective flow rate at duty point
154.0 m3/h
Configuration
120P configuration
Manufacturer Datasheet
Datasheet
M15-BFG-150P
Model number
M15-BFG-150P
Plate count (min)
16 plates
Plate count (max)
300 plates
Max flow rate
187.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine engine cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
229 plates
Effective flow rate at duty point
187.0 m3/h
Configuration
150P configuration
Manufacturer Datasheet
Datasheet
M15-BFG-180P
Model number
M15-BFG-180P
Plate count (min)
16 plates
Plate count (max)
300 plates
Max flow rate
209.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine engine cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
271 plates
Effective flow rate at duty point
209.0 m3/h
Configuration
180P configuration
Manufacturer Datasheet
Datasheet
M15-BFG-MAX
Model number
M15-BFG-MAX
Plate count (min)
16 plates
Plate count (max)
300 plates
Max flow rate
220.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine engine cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
300 plates
Effective flow rate at duty point
220.0 m3/h
Configuration
MAX configuration
Manufacturer Datasheet
Datasheet
M15-BFM
Model number
M15-BFM
Plate count (min)
16 plates
Plate count (max)
300 plates
Max flow rate
200.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine engine cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Manufacturer Datasheet
Datasheet
M15-BFM-30P
Model number
M15-BFM-30P
Plate count (min)
16 plates
Plate count (max)
300 plates
Max flow rate
40.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine engine cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
58 plates
Effective flow rate at duty point
40.0 m3/h
Configuration
30P configuration
Manufacturer Datasheet
Datasheet
M15-BFM-60P
Model number
M15-BFM-60P
Plate count (min)
16 plates
Plate count (max)
300 plates
Max flow rate
76.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine engine cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
101 plates
Effective flow rate at duty point
76.0 m3/h
Configuration
60P configuration
Manufacturer Datasheet
Datasheet
M15-BFM-90P
Model number
M15-BFM-90P
Plate count (min)
16 plates
Plate count (max)
300 plates
Max flow rate
110.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine engine cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
143 plates
Effective flow rate at duty point
110.0 m3/h
Configuration
90P configuration
Manufacturer Datasheet
Datasheet
M15-BFM-120P
Model number
M15-BFM-120P
Plate count (min)
16 plates
Plate count (max)
300 plates
Max flow rate
140.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine engine cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
186 plates
Effective flow rate at duty point
140.0 m3/h
Configuration
120P configuration
Manufacturer Datasheet
Datasheet
M15-BFM-150P
Model number
M15-BFM-150P
Plate count (min)
16 plates
Plate count (max)
300 plates
Max flow rate
170.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine engine cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
229 plates
Effective flow rate at duty point
170.0 m3/h
Configuration
150P configuration
Manufacturer Datasheet
Datasheet
M15-BFM-180P
Model number
M15-BFM-180P
Plate count (min)
16 plates
Plate count (max)
300 plates
Max flow rate
190.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine engine cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
271 plates
Effective flow rate at duty point
190.0 m3/h
Configuration
180P configuration
Manufacturer Datasheet
Datasheet
M15-BFM-MAX
Model number
M15-BFM-MAX
Plate count (min)
16 plates
Plate count (max)
300 plates
Max flow rate
200.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine engine cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
300 plates
Effective flow rate at duty point
200.0 m3/h
Configuration
MAX configuration
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. M15-MFG
M15-MFG
Model number
M15-MFG
Plate count (min)
16 plates
Plate count (max)
300 plates
Max flow rate
220.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine engine cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Manufacturer Datasheet
Datasheet
M15-MFG-30P
Model number
M15-MFG-30P
Plate count (min)
16 plates
Plate count (max)
300 plates
Max flow rate
44.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine engine cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
58 plates
Effective flow rate at duty point
44.0 m3/h
Configuration
30P configuration
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. M15-MFG-60P
M15-MFG-60P
Model number
M15-MFG-60P
Plate count (min)
16 plates
Plate count (max)
300 plates
Max flow rate
83.6 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine engine cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
101 plates
Effective flow rate at duty point
83.6 m3/h
Configuration
60P configuration
Manufacturer Datasheet
Datasheet
M15-MFG-90P
Model number
M15-MFG-90P
Plate count (min)
16 plates
Plate count (max)
300 plates
Max flow rate
121.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine engine cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
143 plates
Effective flow rate at duty point
121.0 m3/h
Configuration
90P configuration
Manufacturer Datasheet
Datasheet
M15-MFG-120P
Model number
M15-MFG-120P
Plate count (min)
16 plates
Plate count (max)
300 plates
Max flow rate
154.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine engine cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
186 plates
Effective flow rate at duty point
154.0 m3/h
Configuration
120P configuration
Manufacturer Datasheet
Datasheet
M15-MFG-150P
Model number
M15-MFG-150P
Plate count (min)
16 plates
Plate count (max)
300 plates
Max flow rate
187.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine engine cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
229 plates
Effective flow rate at duty point
187.0 m3/h
Configuration
150P configuration
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. M15-MFG-180P
M15-MFG-180P
Model number
M15-MFG-180P
Plate count (min)
16 plates
Plate count (max)
300 plates
Max flow rate
209.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine engine cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
271 plates
Effective flow rate at duty point
209.0 m3/h
Configuration
180P configuration
Manufacturer Datasheet
Datasheet
M15-MFG-MAX
Model number
M15-MFG-MAX
Plate count (min)
16 plates
Plate count (max)
300 plates
Max flow rate
220.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine engine cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
300 plates
Effective flow rate at duty point
220.0 m3/h
Configuration
MAX configuration
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. M15-MFM
M15-MFM
Model number
M15-MFM
Plate count (min)
16 plates
Plate count (max)
300 plates
Max flow rate
200.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine engine cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Manufacturer Datasheet
Datasheet
M15-MFM-30P
Model number
M15-MFM-30P
Plate count (min)
16 plates
Plate count (max)
300 plates
Max flow rate
40.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine engine cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
58 plates
Effective flow rate at duty point
40.0 m3/h
Configuration
30P configuration
Manufacturer Datasheet
Datasheet
M15-MFM-60P
Model number
M15-MFM-60P
Plate count (min)
16 plates
Plate count (max)
300 plates
Max flow rate
76.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine engine cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
101 plates
Effective flow rate at duty point
76.0 m3/h
Configuration
60P configuration
Manufacturer Datasheet
Datasheet
M15-MFM-90P
Model number
M15-MFM-90P
Plate count (min)
16 plates
Plate count (max)
300 plates
Max flow rate
110.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine engine cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
143 plates
Effective flow rate at duty point
110.0 m3/h
Configuration
90P configuration
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. M15-MFM-120P
M15-MFM-120P
Model number
M15-MFM-120P
Plate count (min)
16 plates
Plate count (max)
300 plates
Max flow rate
140.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine engine cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
186 plates
Effective flow rate at duty point
140.0 m3/h
Configuration
120P configuration
Manufacturer Datasheet
Datasheet
M15-MFM-150P
Model number
M15-MFM-150P
Plate count (min)
16 plates
Plate count (max)
300 plates
Max flow rate
170.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine engine cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
229 plates
Effective flow rate at duty point
170.0 m3/h
Configuration
150P configuration
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. M15-MFM-180P
M15-MFM-180P
Model number
M15-MFM-180P
Plate count (min)
16 plates
Plate count (max)
300 plates
Max flow rate
190.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine engine cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
271 plates
Effective flow rate at duty point
190.0 m3/h
Configuration
180P configuration
Manufacturer Datasheet
Datasheet
M15-MFM-MAX
Model number
M15-MFM-MAX
Plate count (min)
16 plates
Plate count (max)
300 plates
Max flow rate
200.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine engine cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
300 plates
Effective flow rate at duty point
200.0 m3/h
Configuration
MAX configuration
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. M20
M20
Model number
M20
Plate count (min)
20 plates
Plate count (max)
400 plates
Max flow rate
400.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine main central cooling, LT/HT
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. M20-30P
M20-30P
Model number
M20-30P
Plate count (min)
20 plates
Plate count (max)
400 plates
Max flow rate
80.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine main central cooling, LT/HT
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
77 plates
Effective flow rate at duty point
80.0 m3/h
Configuration
30P configuration
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. M20-60P
M20-60P
Model number
M20-60P
Plate count (min)
20 plates
Plate count (max)
400 plates
Max flow rate
152.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine main central cooling, LT/HT
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
134 plates
Effective flow rate at duty point
152.0 m3/h
Configuration
60P configuration
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. M20-90P
M20-90P
Model number
M20-90P
Plate count (min)
20 plates
Plate count (max)
400 plates
Max flow rate
220.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine main central cooling, LT/HT
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
191 plates
Effective flow rate at duty point
220.0 m3/h
Configuration
90P configuration
Manufacturer Datasheet
Datasheet
M20-120P
Model number
M20-120P
Plate count (min)
20 plates
Plate count (max)
400 plates
Max flow rate
280.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine main central cooling, LT/HT
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
248 plates
Effective flow rate at duty point
280.0 m3/h
Configuration
120P configuration
Manufacturer Datasheet
Datasheet
M20-150P
Model number
M20-150P
Plate count (min)
20 plates
Plate count (max)
400 plates
Max flow rate
340.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine main central cooling, LT/HT
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
305 plates
Effective flow rate at duty point
340.0 m3/h
Configuration
150P configuration
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. M20-180P
M20-180P
Model number
M20-180P
Plate count (min)
20 plates
Plate count (max)
400 plates
Max flow rate
380.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine main central cooling, LT/HT
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
362 plates
Effective flow rate at duty point
380.0 m3/h
Configuration
180P configuration
Manufacturer Datasheet
Datasheet
M20-MAX
Model number
M20-MAX
Plate count (min)
20 plates
Plate count (max)
400 plates
Max flow rate
400.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine main central cooling, LT/HT
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
400 plates
Effective flow rate at duty point
400.0 m3/h
Configuration
MAX configuration
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. M20-MFG
M20-MFG
Model number
M20-MFG
Plate count (min)
20 plates
Plate count (max)
400 plates
Max flow rate
440.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine main central cooling, LT/HT
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. M20-MFG-30P
M20-MFG-30P
Model number
M20-MFG-30P
Plate count (min)
20 plates
Plate count (max)
400 plates
Max flow rate
88.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine main central cooling, LT/HT
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
77 plates
Effective flow rate at duty point
88.0 m3/h
Configuration
30P configuration
Manufacturer Datasheet
Datasheet
M20-MFG-60P
Model number
M20-MFG-60P
Plate count (min)
20 plates
Plate count (max)
400 plates
Max flow rate
167.2 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine main central cooling, LT/HT
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
134 plates
Effective flow rate at duty point
167.2 m3/h
Configuration
60P configuration
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. M20-MFG-90P
M20-MFG-90P
Model number
M20-MFG-90P
Plate count (min)
20 plates
Plate count (max)
400 plates
Max flow rate
242.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine main central cooling, LT/HT
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
191 plates
Effective flow rate at duty point
242.0 m3/h
Configuration
90P configuration
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. M20-MFG-120P
M20-MFG-120P
Model number
M20-MFG-120P
Plate count (min)
20 plates
Plate count (max)
400 plates
Max flow rate
308.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine main central cooling, LT/HT
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
248 plates
Effective flow rate at duty point
308.0 m3/h
Configuration
120P configuration
Manufacturer Datasheet
Datasheet
M20-MFG-150P
Model number
M20-MFG-150P
Plate count (min)
20 plates
Plate count (max)
400 plates
Max flow rate
374.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine main central cooling, LT/HT
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
305 plates
Effective flow rate at duty point
374.0 m3/h
Configuration
150P configuration
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. M20-MFG-180P
M20-MFG-180P
Model number
M20-MFG-180P
Plate count (min)
20 plates
Plate count (max)
400 plates
Max flow rate
418.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine main central cooling, LT/HT
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
362 plates
Effective flow rate at duty point
418.0 m3/h
Configuration
180P configuration
Manufacturer Datasheet
Datasheet
M20-MFG-MAX
Model number
M20-MFG-MAX
Plate count (min)
20 plates
Plate count (max)
400 plates
Max flow rate
440.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine main central cooling, LT/HT
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
400 plates
Effective flow rate at duty point
440.0 m3/h
Configuration
MAX configuration
Manufacturer Datasheet
Datasheet
M20-MFM
Model number
M20-MFM
Plate count (min)
20 plates
Plate count (max)
400 plates
Max flow rate
400.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine main central cooling, LT/HT
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. M20-MFM-30P
M20-MFM-30P
Model number
M20-MFM-30P
Plate count (min)
20 plates
Plate count (max)
400 plates
Max flow rate
80.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine main central cooling, LT/HT
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
77 plates
Effective flow rate at duty point
80.0 m3/h
Configuration
30P configuration
Manufacturer Datasheet
Datasheet
M20-MFM-60P
Model number
M20-MFM-60P
Plate count (min)
20 plates
Plate count (max)
400 plates
Max flow rate
152.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine main central cooling, LT/HT
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
134 plates
Effective flow rate at duty point
152.0 m3/h
Configuration
60P configuration
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. M20-MFM-90P
M20-MFM-90P
Model number
M20-MFM-90P
Plate count (min)
20 plates
Plate count (max)
400 plates
Max flow rate
220.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine main central cooling, LT/HT
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
191 plates
Effective flow rate at duty point
220.0 m3/h
Configuration
90P configuration
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. M20-MFM-120P
M20-MFM-120P
Model number
M20-MFM-120P
Plate count (min)
20 plates
Plate count (max)
400 plates
Max flow rate
280.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine main central cooling, LT/HT
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
248 plates
Effective flow rate at duty point
280.0 m3/h
Configuration
120P configuration
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. M20-MFM-150P
M20-MFM-150P
Model number
M20-MFM-150P
Plate count (min)
20 plates
Plate count (max)
400 plates
Max flow rate
340.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine main central cooling, LT/HT
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
305 plates
Effective flow rate at duty point
340.0 m3/h
Configuration
150P configuration
Manufacturer Datasheet
Datasheet
M20-MFM-180P
Model number
M20-MFM-180P
Plate count (min)
20 plates
Plate count (max)
400 plates
Max flow rate
380.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine main central cooling, LT/HT
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
362 plates
Effective flow rate at duty point
380.0 m3/h
Configuration
180P configuration
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. M20-MFM-MAX
M20-MFM-MAX
Model number
M20-MFM-MAX
Plate count (min)
20 plates
Plate count (max)
400 plates
Max flow rate
400.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine main central cooling, LT/HT
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
400 plates
Effective flow rate at duty point
400.0 m3/h
Configuration
MAX configuration
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. M30
M30
Model number
M30
Plate count (min)
30 plates
Plate count (max)
600 plates
Max flow rate
1100.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine very large central cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. M30-30P
M30-30P
Model number
M30-30P
Plate count (min)
30 plates
Plate count (max)
600 plates
Max flow rate
220.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine very large central cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
115 plates
Effective flow rate at duty point
220.0 m3/h
Configuration
30P configuration
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. M30-60P
M30-60P
Model number
M30-60P
Plate count (min)
30 plates
Plate count (max)
600 plates
Max flow rate
418.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine very large central cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
201 plates
Effective flow rate at duty point
418.0 m3/h
Configuration
60P configuration
Manufacturer Datasheet
Datasheet
M30-90P
Model number
M30-90P
Plate count (min)
30 plates
Plate count (max)
600 plates
Max flow rate
605.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine very large central cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
286 plates
Effective flow rate at duty point
605.0 m3/h
Configuration
90P configuration
Manufacturer Datasheet
Datasheet
M30-120P
Model number
M30-120P
Plate count (min)
30 plates
Plate count (max)
600 plates
Max flow rate
770.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine very large central cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
372 plates
Effective flow rate at duty point
770.0 m3/h
Configuration
120P configuration
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. M30-150P
M30-150P
Model number
M30-150P
Plate count (min)
30 plates
Plate count (max)
600 plates
Max flow rate
935.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine very large central cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
457 plates
Effective flow rate at duty point
935.0 m3/h
Configuration
150P configuration
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. M30-180P
M30-180P
Model number
M30-180P
Plate count (min)
30 plates
Plate count (max)
600 plates
Max flow rate
1045.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine very large central cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
543 plates
Effective flow rate at duty point
1045.0 m3/h
Configuration
180P configuration
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. M30-MAX
M30-MAX
Model number
M30-MAX
Plate count (min)
30 plates
Plate count (max)
600 plates
Max flow rate
1100.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine very large central cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
600 plates
Effective flow rate at duty point
1100.0 m3/h
Configuration
MAX configuration
Manufacturer Datasheet
Datasheet
M30-MFG
Model number
M30-MFG
Plate count (min)
30 plates
Plate count (max)
600 plates
Max flow rate
1200.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine very large central cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Manufacturer Datasheet
Datasheet
M30-MFG-30P
Model number
M30-MFG-30P
Plate count (min)
30 plates
Plate count (max)
600 plates
Max flow rate
240.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine very large central cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
115 plates
Effective flow rate at duty point
240.0 m3/h
Configuration
30P configuration
Manufacturer Datasheet
Datasheet
M30-MFG-60P
Model number
M30-MFG-60P
Plate count (min)
30 plates
Plate count (max)
600 plates
Max flow rate
456.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine very large central cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
201 plates
Effective flow rate at duty point
456.0 m3/h
Configuration
60P configuration
Manufacturer Datasheet
Datasheet
M30-MFG-90P
Model number
M30-MFG-90P
Plate count (min)
30 plates
Plate count (max)
600 plates
Max flow rate
660.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine very large central cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
286 plates
Effective flow rate at duty point
660.0 m3/h
Configuration
90P configuration
Manufacturer Datasheet
Datasheet
M30-MFG-120P
Model number
M30-MFG-120P
Plate count (min)
30 plates
Plate count (max)
600 plates
Max flow rate
840.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine very large central cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
372 plates
Effective flow rate at duty point
840.0 m3/h
Configuration
120P configuration
Manufacturer Datasheet
Datasheet
M30-MFG-150P
Model number
M30-MFG-150P
Plate count (min)
30 plates
Plate count (max)
600 plates
Max flow rate
1020.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine very large central cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
457 plates
Effective flow rate at duty point
1020.0 m3/h
Configuration
150P configuration
Manufacturer Datasheet
Datasheet
M30-MFG-180P
Model number
M30-MFG-180P
Plate count (min)
30 plates
Plate count (max)
600 plates
Max flow rate
1140.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine very large central cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
543 plates
Effective flow rate at duty point
1140.0 m3/h
Configuration
180P configuration
Manufacturer Datasheet
Datasheet
M30-MFG-MAX
Model number
M30-MFG-MAX
Plate count (min)
30 plates
Plate count (max)
600 plates
Max flow rate
1200.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine very large central cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
600 plates
Effective flow rate at duty point
1200.0 m3/h
Configuration
MAX configuration
Manufacturer Datasheet
Datasheet
M30-MFM
Model number
M30-MFM
Plate count (min)
30 plates
Plate count (max)
600 plates
Max flow rate
1100.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine very large central cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Manufacturer Datasheet
Datasheet
M30-MFM-30P
Model number
M30-MFM-30P
Plate count (min)
30 plates
Plate count (max)
600 plates
Max flow rate
220.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine very large central cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
115 plates
Effective flow rate at duty point
220.0 m3/h
Configuration
30P configuration
Manufacturer Datasheet
Datasheet
M30-MFM-60P
Model number
M30-MFM-60P
Plate count (min)
30 plates
Plate count (max)
600 plates
Max flow rate
418.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine very large central cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
201 plates
Effective flow rate at duty point
418.0 m3/h
Configuration
60P configuration
Manufacturer Datasheet
Datasheet
M30-MFM-90P
Model number
M30-MFM-90P
Plate count (min)
30 plates
Plate count (max)
600 plates
Max flow rate
605.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine very large central cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
286 plates
Effective flow rate at duty point
605.0 m3/h
Configuration
90P configuration
Manufacturer Datasheet
Datasheet
M30-MFM-120P
Model number
M30-MFM-120P
Plate count (min)
30 plates
Plate count (max)
600 plates
Max flow rate
770.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine very large central cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
372 plates
Effective flow rate at duty point
770.0 m3/h
Configuration
120P configuration
Manufacturer Datasheet
Datasheet
M30-MFM-150P
Model number
M30-MFM-150P
Plate count (min)
30 plates
Plate count (max)
600 plates
Max flow rate
935.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine very large central cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
457 plates
Effective flow rate at duty point
935.0 m3/h
Configuration
150P configuration
Manufacturer Datasheet
Datasheet
M30-MFM-180P
Model number
M30-MFM-180P
Plate count (min)
30 plates
Plate count (max)
600 plates
Max flow rate
1045.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine very large central cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
543 plates
Effective flow rate at duty point
1045.0 m3/h
Configuration
180P configuration
Manufacturer Datasheet
Datasheet
M30-MFM-MAX
Model number
M30-MFM-MAX
Plate count (min)
30 plates
Plate count (max)
600 plates
Max flow rate
1100.0 m3/h
Design pressure
16 bar
Max temperature
110 C
Application
marine very large central cooling
Plate material
Stainless steel (AISI 316) standard; titanium / Hastelloy on request
Gasket material
NBR / EPDM / FKM depending on duty
Plate count (configured)
600 plates
Effective flow rate at duty point
1100.0 m3/h
Configuration
MAX configuration
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. AlfaQ-14
AlfaQ-14
Model number
AlfaQ-14
Plate count (min)
10 plates
Plate count (max)
150 plates
Max flow rate
20.0 m3/h
Design pressure
16 bar
Application
two-phase condensation
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. AlfaQ-14-30P
AlfaQ-14-30P
Model number
AlfaQ-14-30P
Plate count (min)
10 plates
Plate count (max)
150 plates
Max flow rate
4.0 m3/h
Design pressure
16 bar
Application
two-phase condensation
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
31 plates
Effective flow rate at duty point
4.0 m3/h
Configuration
30P configuration
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. AlfaQ-14-60P
AlfaQ-14-60P
Model number
AlfaQ-14-60P
Plate count (min)
10 plates
Plate count (max)
150 plates
Max flow rate
7.6 m3/h
Design pressure
16 bar
Application
two-phase condensation
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
52 plates
Effective flow rate at duty point
7.6 m3/h
Configuration
60P configuration
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. AlfaQ-14-90P
AlfaQ-14-90P
Model number
AlfaQ-14-90P
Plate count (min)
10 plates
Plate count (max)
150 plates
Max flow rate
11.0 m3/h
Design pressure
16 bar
Application
two-phase condensation
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
73 plates
Effective flow rate at duty point
11.0 m3/h
Configuration
90P configuration
Common Failures & Inspection Points
  • Fouling on the heat-transfer surfaces from scale, sludge, biological growth, or oil contamination reduces thermal performance and appears as rising outlet temperature or reduced temperature approach
  • Gasket, seal, tube, or plate leakage caused by ageing, corrosion, or mechanical damage can allow external leakage or cross-contamination between circuits
  • Restricted flow from debris or deposits raises differential pressure and can reduce downstream flow
  • Corrosion or erosion of wetted surfaces caused by unsuitable water chemistry, velocity, or material attack can produce pinhole leakage and contamination
  • Loose covers, plate packs, or connections after maintenance can cause leakage, unstable temperatures, or loss of system pressure
Service: Inspect for external leakage, corrosion, abnormal temperature difference, flow restriction, and evidence of cross-contamination. Trend inlet and outlet temperatures and differential pressure where instruments are fitted, clean the heat-transfer surfaces using an approved method, and verify tightening or assembly against the manufacturer documentation.
Spare Parts: Keep the applicable gasket or seal set, connection seals, and any model-specific plate, tube, or fastening items recommended by the manufacturer. For the exact spare quantities and part numbers, refer to the manufacturer documentation.
Use Cases: Used on merchant ships, offshore vessels, passenger ships, fishing vessels, and workboats wherever machinery or process fluids require controlled heating or cooling.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. AlfaQ-14-120P
AlfaQ-14-120P
Model number
AlfaQ-14-120P
Plate count (min)
10 plates
Plate count (max)
150 plates
Max flow rate
14.0 m3/h
Design pressure
16 bar
Application
two-phase condensation
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
94 plates
Effective flow rate at duty point
14.0 m3/h
Configuration
120P configuration
Common Failures & Inspection Points
  • Fouling on the heat-transfer surfaces from scale, sludge, biological growth, or oil contamination reduces thermal performance and appears as rising outlet temperature or reduced temperature approach
  • Gasket, seal, tube, or plate leakage caused by ageing, corrosion, or mechanical damage can allow external leakage or cross-contamination between circuits
  • Restricted flow from debris or deposits raises differential pressure and can reduce downstream flow
  • Corrosion or erosion of wetted surfaces caused by unsuitable water chemistry, velocity, or material attack can produce pinhole leakage and contamination
  • Loose covers, plate packs, or connections after maintenance can cause leakage, unstable temperatures, or loss of system pressure
Service: Inspect for external leakage, corrosion, abnormal temperature difference, flow restriction, and evidence of cross-contamination. Trend inlet and outlet temperatures and differential pressure where instruments are fitted, clean the heat-transfer surfaces using an approved method, and verify tightening or assembly against the manufacturer documentation.
Spare Parts: Keep the applicable gasket or seal set, connection seals, and any model-specific plate, tube, or fastening items recommended by the manufacturer. For the exact spare quantities and part numbers, refer to the manufacturer documentation.
Use Cases: Used on merchant ships, offshore vessels, passenger ships, fishing vessels, and workboats wherever machinery or process fluids require controlled heating or cooling.
Manufacturer Datasheet
Datasheet
AlfaQ-14-150P
Model number
AlfaQ-14-150P
Plate count (min)
10 plates
Plate count (max)
150 plates
Max flow rate
17.0 m3/h
Design pressure
16 bar
Application
two-phase condensation
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
115 plates
Effective flow rate at duty point
17.0 m3/h
Configuration
150P configuration
Common Failures & Inspection Points
  • Fouling on the heat-transfer surfaces from scale, sludge, biological growth, or oil contamination reduces thermal performance and appears as rising outlet temperature or reduced temperature approach
  • Gasket, seal, tube, or plate leakage caused by ageing, corrosion, or mechanical damage can allow external leakage or cross-contamination between circuits
  • Restricted flow from debris or deposits raises differential pressure and can reduce downstream flow
  • Corrosion or erosion of wetted surfaces caused by unsuitable water chemistry, velocity, or material attack can produce pinhole leakage and contamination
  • Loose covers, plate packs, or connections after maintenance can cause leakage, unstable temperatures, or loss of system pressure
Service: Inspect for external leakage, corrosion, abnormal temperature difference, flow restriction, and evidence of cross-contamination. Trend inlet and outlet temperatures and differential pressure where instruments are fitted, clean the heat-transfer surfaces using an approved method, and verify tightening or assembly against the manufacturer documentation.
Spare Parts: Keep the applicable gasket or seal set, connection seals, and any model-specific plate, tube, or fastening items recommended by the manufacturer. For the exact spare quantities and part numbers, refer to the manufacturer documentation.
Use Cases: Used on merchant ships, offshore vessels, passenger ships, fishing vessels, and workboats wherever machinery or process fluids require controlled heating or cooling.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. AlfaQ-14-180P
AlfaQ-14-180P
Model number
AlfaQ-14-180P
Plate count (min)
10 plates
Plate count (max)
150 plates
Max flow rate
19.0 m3/h
Design pressure
16 bar
Application
two-phase condensation
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
136 plates
Effective flow rate at duty point
19.0 m3/h
Configuration
180P configuration
Common Failures & Inspection Points
  • Fouling on the heat-transfer surfaces from scale, sludge, biological growth, or oil contamination reduces thermal performance and appears as rising outlet temperature or reduced temperature approach
  • Gasket, seal, tube, or plate leakage caused by ageing, corrosion, or mechanical damage can allow external leakage or cross-contamination between circuits
  • Restricted flow from debris or deposits raises differential pressure and can reduce downstream flow
  • Corrosion or erosion of wetted surfaces caused by unsuitable water chemistry, velocity, or material attack can produce pinhole leakage and contamination
  • Loose covers, plate packs, or connections after maintenance can cause leakage, unstable temperatures, or loss of system pressure
Service: Inspect for external leakage, corrosion, abnormal temperature difference, flow restriction, and evidence of cross-contamination. Trend inlet and outlet temperatures and differential pressure where instruments are fitted, clean the heat-transfer surfaces using an approved method, and verify tightening or assembly against the manufacturer documentation.
Spare Parts: Keep the applicable gasket or seal set, connection seals, and any model-specific plate, tube, or fastening items recommended by the manufacturer. For the exact spare quantities and part numbers, refer to the manufacturer documentation.
Use Cases: Used on merchant ships, offshore vessels, passenger ships, fishing vessels, and workboats wherever machinery or process fluids require controlled heating or cooling.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. AlfaQ-14-MAX
AlfaQ-14-MAX
Model number
AlfaQ-14-MAX
Plate count (min)
10 plates
Plate count (max)
150 plates
Max flow rate
20.0 m3/h
Design pressure
16 bar
Application
two-phase condensation
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
150 plates
Effective flow rate at duty point
20.0 m3/h
Configuration
MAX configuration
Common Failures & Inspection Points
  • Fouling on the heat-transfer surfaces from scale, sludge, biological growth, or oil contamination reduces thermal performance and appears as rising outlet temperature or reduced temperature approach
  • Gasket, seal, tube, or plate leakage caused by ageing, corrosion, or mechanical damage can allow external leakage or cross-contamination between circuits
  • Restricted flow from debris or deposits raises differential pressure and can reduce downstream flow
  • Corrosion or erosion of wetted surfaces caused by unsuitable water chemistry, velocity, or material attack can produce pinhole leakage and contamination
  • Loose covers, plate packs, or connections after maintenance can cause leakage, unstable temperatures, or loss of system pressure
Service: Inspect for external leakage, corrosion, abnormal temperature difference, flow restriction, and evidence of cross-contamination. Trend inlet and outlet temperatures and differential pressure where instruments are fitted, clean the heat-transfer surfaces using an approved method, and verify tightening or assembly against the manufacturer documentation.
Spare Parts: Keep the applicable gasket or seal set, connection seals, and any model-specific plate, tube, or fastening items recommended by the manufacturer. For the exact spare quantities and part numbers, refer to the manufacturer documentation.
Use Cases: Used on merchant ships, offshore vessels, passenger ships, fishing vessels, and workboats wherever machinery or process fluids require controlled heating or cooling.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. AlfaQ-27
AlfaQ-27
Model number
AlfaQ-27
Plate count (min)
16 plates
Plate count (max)
250 plates
Max flow rate
80.0 m3/h
Design pressure
16 bar
Application
two-phase condensation
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Common Failures & Inspection Points
  • Fouling on the heat-transfer surfaces from scale, sludge, biological growth, or oil contamination reduces thermal performance and appears as rising outlet temperature or reduced temperature approach
  • Gasket, seal, tube, or plate leakage caused by ageing, corrosion, or mechanical damage can allow external leakage or cross-contamination between circuits
  • Restricted flow from debris or deposits raises differential pressure and can reduce downstream flow
  • Corrosion or erosion of wetted surfaces caused by unsuitable water chemistry, velocity, or material attack can produce pinhole leakage and contamination
  • Loose covers, plate packs, or connections after maintenance can cause leakage, unstable temperatures, or loss of system pressure
Service: Inspect for external leakage, corrosion, abnormal temperature difference, flow restriction, and evidence of cross-contamination. Trend inlet and outlet temperatures and differential pressure where instruments are fitted, clean the heat-transfer surfaces using an approved method, and verify tightening or assembly against the manufacturer documentation.
Spare Parts: Keep the applicable gasket or seal set, connection seals, and any model-specific plate, tube, or fastening items recommended by the manufacturer. For the exact spare quantities and part numbers, refer to the manufacturer documentation.
Use Cases: Used on merchant ships, offshore vessels, passenger ships, fishing vessels, and workboats wherever machinery or process fluids require controlled heating or cooling.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. AlfaQ-27-30P
AlfaQ-27-30P
Model number
AlfaQ-27-30P
Plate count (min)
16 plates
Plate count (max)
250 plates
Max flow rate
16.0 m3/h
Design pressure
16 bar
Application
two-phase condensation
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
51 plates
Effective flow rate at duty point
16.0 m3/h
Configuration
30P configuration
Common Failures & Inspection Points
  • Fouling on the heat-transfer surfaces from scale, sludge, biological growth, or oil contamination reduces thermal performance and appears as rising outlet temperature or reduced temperature approach
  • Gasket, seal, tube, or plate leakage caused by ageing, corrosion, or mechanical damage can allow external leakage or cross-contamination between circuits
  • Restricted flow from debris or deposits raises differential pressure and can reduce downstream flow
  • Corrosion or erosion of wetted surfaces caused by unsuitable water chemistry, velocity, or material attack can produce pinhole leakage and contamination
  • Loose covers, plate packs, or connections after maintenance can cause leakage, unstable temperatures, or loss of system pressure
Service: Inspect for external leakage, corrosion, abnormal temperature difference, flow restriction, and evidence of cross-contamination. Trend inlet and outlet temperatures and differential pressure where instruments are fitted, clean the heat-transfer surfaces using an approved method, and verify tightening or assembly against the manufacturer documentation.
Spare Parts: Keep the applicable gasket or seal set, connection seals, and any model-specific plate, tube, or fastening items recommended by the manufacturer. For the exact spare quantities and part numbers, refer to the manufacturer documentation.
Use Cases: Used on merchant ships, offshore vessels, passenger ships, fishing vessels, and workboats wherever machinery or process fluids require controlled heating or cooling.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. AlfaQ-27-60P
AlfaQ-27-60P
Model number
AlfaQ-27-60P
Plate count (min)
16 plates
Plate count (max)
250 plates
Max flow rate
30.4 m3/h
Design pressure
16 bar
Application
two-phase condensation
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
86 plates
Effective flow rate at duty point
30.4 m3/h
Configuration
60P configuration
Common Failures & Inspection Points
  • Fouling on the heat-transfer surfaces from scale, sludge, biological growth, or oil contamination reduces thermal performance and appears as rising outlet temperature or reduced temperature approach
  • Gasket, seal, tube, or plate leakage caused by ageing, corrosion, or mechanical damage can allow external leakage or cross-contamination between circuits
  • Restricted flow from debris or deposits raises differential pressure and can reduce downstream flow
  • Corrosion or erosion of wetted surfaces caused by unsuitable water chemistry, velocity, or material attack can produce pinhole leakage and contamination
  • Loose covers, plate packs, or connections after maintenance can cause leakage, unstable temperatures, or loss of system pressure
Service: Inspect for external leakage, corrosion, abnormal temperature difference, flow restriction, and evidence of cross-contamination. Trend inlet and outlet temperatures and differential pressure where instruments are fitted, clean the heat-transfer surfaces using an approved method, and verify tightening or assembly against the manufacturer documentation.
Spare Parts: Keep the applicable gasket or seal set, connection seals, and any model-specific plate, tube, or fastening items recommended by the manufacturer. For the exact spare quantities and part numbers, refer to the manufacturer documentation.
Use Cases: Used on merchant ships, offshore vessels, passenger ships, fishing vessels, and workboats wherever machinery or process fluids require controlled heating or cooling.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. AlfaQ-27-90P
AlfaQ-27-90P
Model number
AlfaQ-27-90P
Plate count (min)
16 plates
Plate count (max)
250 plates
Max flow rate
44.0 m3/h
Design pressure
16 bar
Application
two-phase condensation
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
121 plates
Effective flow rate at duty point
44.0 m3/h
Configuration
90P configuration
Common Failures & Inspection Points
  • Fouling on the heat-transfer surfaces from scale, sludge, biological growth, or oil contamination reduces thermal performance and appears as rising outlet temperature or reduced temperature approach
  • Gasket, seal, tube, or plate leakage caused by ageing, corrosion, or mechanical damage can allow external leakage or cross-contamination between circuits
  • Restricted flow from debris or deposits raises differential pressure and can reduce downstream flow
  • Corrosion or erosion of wetted surfaces caused by unsuitable water chemistry, velocity, or material attack can produce pinhole leakage and contamination
  • Loose covers, plate packs, or connections after maintenance can cause leakage, unstable temperatures, or loss of system pressure
Service: Inspect for external leakage, corrosion, abnormal temperature difference, flow restriction, and evidence of cross-contamination. Trend inlet and outlet temperatures and differential pressure where instruments are fitted, clean the heat-transfer surfaces using an approved method, and verify tightening or assembly against the manufacturer documentation.
Spare Parts: Keep the applicable gasket or seal set, connection seals, and any model-specific plate, tube, or fastening items recommended by the manufacturer. For the exact spare quantities and part numbers, refer to the manufacturer documentation.
Use Cases: Used on merchant ships, offshore vessels, passenger ships, fishing vessels, and workboats wherever machinery or process fluids require controlled heating or cooling.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. AlfaQ-27-120P
AlfaQ-27-120P
Model number
AlfaQ-27-120P
Plate count (min)
16 plates
Plate count (max)
250 plates
Max flow rate
56.0 m3/h
Design pressure
16 bar
Application
two-phase condensation
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
156 plates
Effective flow rate at duty point
56.0 m3/h
Configuration
120P configuration
Common Failures & Inspection Points
  • Fouling on the heat-transfer surfaces from scale, sludge, biological growth, or oil contamination reduces thermal performance and appears as rising outlet temperature or reduced temperature approach
  • Gasket, seal, tube, or plate leakage caused by ageing, corrosion, or mechanical damage can allow external leakage or cross-contamination between circuits
  • Restricted flow from debris or deposits raises differential pressure and can reduce downstream flow
  • Corrosion or erosion of wetted surfaces caused by unsuitable water chemistry, velocity, or material attack can produce pinhole leakage and contamination
  • Loose covers, plate packs, or connections after maintenance can cause leakage, unstable temperatures, or loss of system pressure
Service: Inspect for external leakage, corrosion, abnormal temperature difference, flow restriction, and evidence of cross-contamination. Trend inlet and outlet temperatures and differential pressure where instruments are fitted, clean the heat-transfer surfaces using an approved method, and verify tightening or assembly against the manufacturer documentation.
Spare Parts: Keep the applicable gasket or seal set, connection seals, and any model-specific plate, tube, or fastening items recommended by the manufacturer. For the exact spare quantities and part numbers, refer to the manufacturer documentation.
Use Cases: Used on merchant ships, offshore vessels, passenger ships, fishing vessels, and workboats wherever machinery or process fluids require controlled heating or cooling.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. AlfaQ-27-150P
AlfaQ-27-150P
Model number
AlfaQ-27-150P
Plate count (min)
16 plates
Plate count (max)
250 plates
Max flow rate
68.0 m3/h
Design pressure
16 bar
Application
two-phase condensation
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
191 plates
Effective flow rate at duty point
68.0 m3/h
Configuration
150P configuration
Common Failures & Inspection Points
  • Fouling on the heat-transfer surfaces from scale, sludge, biological growth, or oil contamination reduces thermal performance and appears as rising outlet temperature or reduced temperature approach
  • Gasket, seal, tube, or plate leakage caused by ageing, corrosion, or mechanical damage can allow external leakage or cross-contamination between circuits
  • Restricted flow from debris or deposits raises differential pressure and can reduce downstream flow
  • Corrosion or erosion of wetted surfaces caused by unsuitable water chemistry, velocity, or material attack can produce pinhole leakage and contamination
  • Loose covers, plate packs, or connections after maintenance can cause leakage, unstable temperatures, or loss of system pressure
Service: Inspect for external leakage, corrosion, abnormal temperature difference, flow restriction, and evidence of cross-contamination. Trend inlet and outlet temperatures and differential pressure where instruments are fitted, clean the heat-transfer surfaces using an approved method, and verify tightening or assembly against the manufacturer documentation.
Spare Parts: Keep the applicable gasket or seal set, connection seals, and any model-specific plate, tube, or fastening items recommended by the manufacturer. For the exact spare quantities and part numbers, refer to the manufacturer documentation.
Use Cases: Used on merchant ships, offshore vessels, passenger ships, fishing vessels, and workboats wherever machinery or process fluids require controlled heating or cooling.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. AlfaQ-27-180P
AlfaQ-27-180P
Model number
AlfaQ-27-180P
Plate count (min)
16 plates
Plate count (max)
250 plates
Max flow rate
76.0 m3/h
Design pressure
16 bar
Application
two-phase condensation
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
226 plates
Effective flow rate at duty point
76.0 m3/h
Configuration
180P configuration
Common Failures & Inspection Points
  • Fouling on the heat-transfer surfaces from scale, sludge, biological growth, or oil contamination reduces thermal performance and appears as rising outlet temperature or reduced temperature approach
  • Gasket, seal, tube, or plate leakage caused by ageing, corrosion, or mechanical damage can allow external leakage or cross-contamination between circuits
  • Restricted flow from debris or deposits raises differential pressure and can reduce downstream flow
  • Corrosion or erosion of wetted surfaces caused by unsuitable water chemistry, velocity, or material attack can produce pinhole leakage and contamination
  • Loose covers, plate packs, or connections after maintenance can cause leakage, unstable temperatures, or loss of system pressure
Service: Inspect for external leakage, corrosion, abnormal temperature difference, flow restriction, and evidence of cross-contamination. Trend inlet and outlet temperatures and differential pressure where instruments are fitted, clean the heat-transfer surfaces using an approved method, and verify tightening or assembly against the manufacturer documentation.
Spare Parts: Keep the applicable gasket or seal set, connection seals, and any model-specific plate, tube, or fastening items recommended by the manufacturer. For the exact spare quantities and part numbers, refer to the manufacturer documentation.
Use Cases: Used on merchant ships, offshore vessels, passenger ships, fishing vessels, and workboats wherever machinery or process fluids require controlled heating or cooling.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. AlfaQ-27-MAX
AlfaQ-27-MAX
Model number
AlfaQ-27-MAX
Plate count (min)
16 plates
Plate count (max)
250 plates
Max flow rate
80.0 m3/h
Design pressure
16 bar
Application
two-phase condensation
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
250 plates
Effective flow rate at duty point
80.0 m3/h
Configuration
MAX configuration
Common Failures & Inspection Points
  • Fouling on the heat-transfer surfaces from scale, sludge, biological growth, or oil contamination reduces thermal performance and appears as rising outlet temperature or reduced temperature approach
  • Gasket, seal, tube, or plate leakage caused by ageing, corrosion, or mechanical damage can allow external leakage or cross-contamination between circuits
  • Restricted flow from debris or deposits raises differential pressure and can reduce downstream flow
  • Corrosion or erosion of wetted surfaces caused by unsuitable water chemistry, velocity, or material attack can produce pinhole leakage and contamination
  • Loose covers, plate packs, or connections after maintenance can cause leakage, unstable temperatures, or loss of system pressure
Service: Inspect for external leakage, corrosion, abnormal temperature difference, flow restriction, and evidence of cross-contamination. Trend inlet and outlet temperatures and differential pressure where instruments are fitted, clean the heat-transfer surfaces using an approved method, and verify tightening or assembly against the manufacturer documentation.
Spare Parts: Keep the applicable gasket or seal set, connection seals, and any model-specific plate, tube, or fastening items recommended by the manufacturer. For the exact spare quantities and part numbers, refer to the manufacturer documentation.
Use Cases: Used on merchant ships, offshore vessels, passenger ships, fishing vessels, and workboats wherever machinery or process fluids require controlled heating or cooling.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. AlfaQ-52
AlfaQ-52
Model number
AlfaQ-52
Plate count (min)
20 plates
Plate count (max)
350 plates
Max flow rate
230.0 m3/h
Design pressure
16 bar
Application
two-phase condensation
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Common Failures & Inspection Points
  • Fouling on the heat-transfer surfaces from scale, sludge, biological growth, or oil contamination reduces thermal performance and appears as rising outlet temperature or reduced temperature approach
  • Gasket, seal, tube, or plate leakage caused by ageing, corrosion, or mechanical damage can allow external leakage or cross-contamination between circuits
  • Restricted flow from debris or deposits raises differential pressure and can reduce downstream flow
  • Corrosion or erosion of wetted surfaces caused by unsuitable water chemistry, velocity, or material attack can produce pinhole leakage and contamination
  • Loose covers, plate packs, or connections after maintenance can cause leakage, unstable temperatures, or loss of system pressure
Service: Inspect for external leakage, corrosion, abnormal temperature difference, flow restriction, and evidence of cross-contamination. Trend inlet and outlet temperatures and differential pressure where instruments are fitted, clean the heat-transfer surfaces using an approved method, and verify tightening or assembly against the manufacturer documentation.
Spare Parts: Keep the applicable gasket or seal set, connection seals, and any model-specific plate, tube, or fastening items recommended by the manufacturer. For the exact spare quantities and part numbers, refer to the manufacturer documentation.
Use Cases: Used on merchant ships, offshore vessels, passenger ships, fishing vessels, and workboats wherever machinery or process fluids require controlled heating or cooling.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. AlfaQ-52-30P
AlfaQ-52-30P
Model number
AlfaQ-52-30P
Plate count (min)
20 plates
Plate count (max)
350 plates
Max flow rate
46.0 m3/h
Design pressure
16 bar
Application
two-phase condensation
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
69 plates
Effective flow rate at duty point
46.0 m3/h
Configuration
30P configuration
Common Failures & Inspection Points
  • Fouling on the heat-transfer surfaces from scale, sludge, biological growth, or oil contamination reduces thermal performance and appears as rising outlet temperature or reduced temperature approach
  • Gasket, seal, tube, or plate leakage caused by ageing, corrosion, or mechanical damage can allow external leakage or cross-contamination between circuits
  • Restricted flow from debris or deposits raises differential pressure and can reduce downstream flow
  • Corrosion or erosion of wetted surfaces caused by unsuitable water chemistry, velocity, or material attack can produce pinhole leakage and contamination
  • Loose covers, plate packs, or connections after maintenance can cause leakage, unstable temperatures, or loss of system pressure
Service: Inspect for external leakage, corrosion, abnormal temperature difference, flow restriction, and evidence of cross-contamination. Trend inlet and outlet temperatures and differential pressure where instruments are fitted, clean the heat-transfer surfaces using an approved method, and verify tightening or assembly against the manufacturer documentation.
Spare Parts: Keep the applicable gasket or seal set, connection seals, and any model-specific plate, tube, or fastening items recommended by the manufacturer. For the exact spare quantities and part numbers, refer to the manufacturer documentation.
Use Cases: Used on merchant ships, offshore vessels, passenger ships, fishing vessels, and workboats wherever machinery or process fluids require controlled heating or cooling.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. AlfaQ-52-60P
AlfaQ-52-60P
Model number
AlfaQ-52-60P
Plate count (min)
20 plates
Plate count (max)
350 plates
Max flow rate
87.4 m3/h
Design pressure
16 bar
Application
two-phase condensation
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
119 plates
Effective flow rate at duty point
87.4 m3/h
Configuration
60P configuration
Common Failures & Inspection Points
  • Fouling on the heat-transfer surfaces from scale, sludge, biological growth, or oil contamination reduces thermal performance and appears as rising outlet temperature or reduced temperature approach
  • Gasket, seal, tube, or plate leakage caused by ageing, corrosion, or mechanical damage can allow external leakage or cross-contamination between circuits
  • Restricted flow from debris or deposits raises differential pressure and can reduce downstream flow
  • Corrosion or erosion of wetted surfaces caused by unsuitable water chemistry, velocity, or material attack can produce pinhole leakage and contamination
  • Loose covers, plate packs, or connections after maintenance can cause leakage, unstable temperatures, or loss of system pressure
Service: Inspect for external leakage, corrosion, abnormal temperature difference, flow restriction, and evidence of cross-contamination. Trend inlet and outlet temperatures and differential pressure where instruments are fitted, clean the heat-transfer surfaces using an approved method, and verify tightening or assembly against the manufacturer documentation.
Spare Parts: Keep the applicable gasket or seal set, connection seals, and any model-specific plate, tube, or fastening items recommended by the manufacturer. For the exact spare quantities and part numbers, refer to the manufacturer documentation.
Use Cases: Used on merchant ships, offshore vessels, passenger ships, fishing vessels, and workboats wherever machinery or process fluids require controlled heating or cooling.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. AlfaQ-52-90P
AlfaQ-52-90P
Model number
AlfaQ-52-90P
Plate count (min)
20 plates
Plate count (max)
350 plates
Max flow rate
126.5 m3/h
Design pressure
16 bar
Application
two-phase condensation
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
168 plates
Effective flow rate at duty point
126.5 m3/h
Configuration
90P configuration
Common Failures & Inspection Points
  • Fouling on the heat-transfer surfaces from scale, sludge, biological growth, or oil contamination reduces thermal performance and appears as rising outlet temperature or reduced temperature approach
  • Gasket, seal, tube, or plate leakage caused by ageing, corrosion, or mechanical damage can allow external leakage or cross-contamination between circuits
  • Restricted flow from debris or deposits raises differential pressure and can reduce downstream flow
  • Corrosion or erosion of wetted surfaces caused by unsuitable water chemistry, velocity, or material attack can produce pinhole leakage and contamination
  • Loose covers, plate packs, or connections after maintenance can cause leakage, unstable temperatures, or loss of system pressure
Service: Inspect for external leakage, corrosion, abnormal temperature difference, flow restriction, and evidence of cross-contamination. Trend inlet and outlet temperatures and differential pressure where instruments are fitted, clean the heat-transfer surfaces using an approved method, and verify tightening or assembly against the manufacturer documentation.
Spare Parts: Keep the applicable gasket or seal set, connection seals, and any model-specific plate, tube, or fastening items recommended by the manufacturer. For the exact spare quantities and part numbers, refer to the manufacturer documentation.
Use Cases: Used on merchant ships, offshore vessels, passenger ships, fishing vessels, and workboats wherever machinery or process fluids require controlled heating or cooling.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. AlfaQ-52-120P
AlfaQ-52-120P
Model number
AlfaQ-52-120P
Plate count (min)
20 plates
Plate count (max)
350 plates
Max flow rate
161.0 m3/h
Design pressure
16 bar
Application
two-phase condensation
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
218 plates
Effective flow rate at duty point
161.0 m3/h
Configuration
120P configuration
Common Failures & Inspection Points
  • Fouling on the heat-transfer surfaces from scale, sludge, biological growth, or oil contamination reduces thermal performance and appears as rising outlet temperature or reduced temperature approach
  • Gasket, seal, tube, or plate leakage caused by ageing, corrosion, or mechanical damage can allow external leakage or cross-contamination between circuits
  • Restricted flow from debris or deposits raises differential pressure and can reduce downstream flow
  • Corrosion or erosion of wetted surfaces caused by unsuitable water chemistry, velocity, or material attack can produce pinhole leakage and contamination
  • Loose covers, plate packs, or connections after maintenance can cause leakage, unstable temperatures, or loss of system pressure
Service: Inspect for external leakage, corrosion, abnormal temperature difference, flow restriction, and evidence of cross-contamination. Trend inlet and outlet temperatures and differential pressure where instruments are fitted, clean the heat-transfer surfaces using an approved method, and verify tightening or assembly against the manufacturer documentation.
Spare Parts: Keep the applicable gasket or seal set, connection seals, and any model-specific plate, tube, or fastening items recommended by the manufacturer. For the exact spare quantities and part numbers, refer to the manufacturer documentation.
Use Cases: Used on merchant ships, offshore vessels, passenger ships, fishing vessels, and workboats wherever machinery or process fluids require controlled heating or cooling.
Manufacturer Datasheet
Datasheet
AlfaQ-52-150P
Model number
AlfaQ-52-150P
Plate count (min)
20 plates
Plate count (max)
350 plates
Max flow rate
195.5 m3/h
Design pressure
16 bar
Application
two-phase condensation
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
267 plates
Effective flow rate at duty point
195.5 m3/h
Configuration
150P configuration
Common Failures & Inspection Points
  • Fouling on the heat-transfer surfaces from scale, sludge, biological growth, or oil contamination reduces thermal performance and appears as rising outlet temperature or reduced temperature approach
  • Gasket, seal, tube, or plate leakage caused by ageing, corrosion, or mechanical damage can allow external leakage or cross-contamination between circuits
  • Restricted flow from debris or deposits raises differential pressure and can reduce downstream flow
  • Corrosion or erosion of wetted surfaces caused by unsuitable water chemistry, velocity, or material attack can produce pinhole leakage and contamination
  • Loose covers, plate packs, or connections after maintenance can cause leakage, unstable temperatures, or loss of system pressure
Service: Inspect for external leakage, corrosion, abnormal temperature difference, flow restriction, and evidence of cross-contamination. Trend inlet and outlet temperatures and differential pressure where instruments are fitted, clean the heat-transfer surfaces using an approved method, and verify tightening or assembly against the manufacturer documentation.
Spare Parts: Keep the applicable gasket or seal set, connection seals, and any model-specific plate, tube, or fastening items recommended by the manufacturer. For the exact spare quantities and part numbers, refer to the manufacturer documentation.
Use Cases: Used on merchant ships, offshore vessels, passenger ships, fishing vessels, and workboats wherever machinery or process fluids require controlled heating or cooling.
Manufacturer Datasheet
Datasheet
Alfa Laval S.p.A. AlfaQ-52-180P
AlfaQ-52-180P
Model number
AlfaQ-52-180P
Plate count (min)
20 plates
Plate count (max)
350 plates
Max flow rate
218.5 m3/h
Design pressure
16 bar
Application
two-phase condensation
Plate material
Stainless steel (AISI 316)
Brazing material
Stainless steel filler
Plate count (configured)
317 plates
Effective flow rate at duty point
218.5 m3/h
Configuration
180P configuration
Common Failures & Inspection Points
  • Fouling on the heat-transfer surfaces from scale, sludge, biological growth, or oil contamination reduces thermal performance and appears as rising outlet temperature or reduced temperature approach
  • Gasket, seal, tube, or plate leakage caused by ageing, corrosion, or mechanical damage can allow external leakage or cross-contamination between circuits
  • Restricted flow from debris or deposits raises differential pressure and can reduce downstream flow
  • Corrosion or erosion of wetted surfaces caused by unsuitable water chemistry, velocity, or material attack can produce pinhole leakage and contamination
  • Loose covers, plate packs, or connections after maintenance can cause leakage, unstable temperatures, or loss of system pressure
Service: Inspect for external leakage, corrosion, abnormal temperature difference, flow restriction, and evidence of cross-contamination. Trend inlet and outlet temperatures and differential pressure where instruments are fitted, clean the heat-transfer surfaces using an approved method, and verify tightening or assembly against the manufacturer documentation.
Spare Parts: Keep the applicable gasket or seal set, connection seals, and any model-specific plate, tube, or fastening items recommended by the manufacturer. For the exact spare quantities and part numbers, refer to the manufacturer documentation.
Use Cases: Used on merchant ships, offshore vessels, passenger ships, fishing vessels, and workboats wherever machinery or process fluids require controlled heating or cooling.
Manufacturer Datasheet
Datasheet
MK15-FD/MK15-FDR
Model Number
TAP00002A4
Datasheet
T35-FM/T35-PFM
Model Number
TAP000029A
Datasheet
AlfaNova HP 76 / AlfaNovaM HP 76
Model Number
TAP000003F
Datasheet
ALFANOVA HP 400 / ALFANOVA M HP 400
Model Number
TAP00001YZ
Datasheet
T10-FG (T10-BFG, T10-BDFG, T10-BDcFG, T10-MFG, T10-MDFG)
Model Number
TAP000025V
Datasheet
Alfa Laval Technologies AB AlfaNova HP 27 / AlfaNovaM HP 27
AlfaNova HP 27 / AlfaNovaM HP 27
Model Number
TAP000030W
Datasheet
AXP82/AXPM82
Model Number
TAP000030X
Datasheet
Alfa Laval Technologies AB GLH100/GLMH100
GLH100/GLMH100
Model Number
TAP00002XF
Datasheet
GLH150/GLMH150
Model Number
TAP00002XY
Datasheet
M10-FT/T10-FTc
Model Number
TAP000024E
Datasheet
T25-FM, T25-BFM, T25-MFM, T25-PFM
Model Number
TAP00001Z0
Datasheet
T20-FS
Model Number
TAP00002WW
Datasheet
T21-FT
Model Number
TAP00002X6
Datasheet
Alfa Laval Technologies AB CBM400
CBM400
Model Number
TAP000000H
Datasheet
AXP112/AXPM112
Model Number
TAP00002TE
Datasheet
TS20-FM, TS6-FG, TS20-FG
Model Number
TAP00001JY
Datasheet
TS35-FM
Model Number
TAP00001JX
Datasheet
M10-FG
Model Number
TAP00001JS
Datasheet
ACMH112/ACMH220/CBMH112
Model Number
TAP0000008
Datasheet
CBK410, CBMK410
Model Number
TAP00002MD
Datasheet
CBK210, CBMK210
Model Number
TAP00002M0
Datasheet
Alfa Laval Technologies AB CB300/CBM300
CB300/CBM300
Model Number
TAP00001WH
Datasheet
PHE TL10-FG
Model Number
TAP00001A4
Datasheet
PHE TL6-FG
Model Number
TAP00001JR
Datasheet
PHE M3-FG
Model Number
TAP000019Y
Datasheet
PHE M15-FM, PHE M15-FG
Model Number
TAP00001MF
Datasheet
T21-FM
Model Number
TAP00002HT
Datasheet
MX25-FMS
Model Number
TAP00001YY
Datasheet
PHE M6-FG
Model Number
TAP00001YV
Datasheet
CB30/CBM30, CB110/CBM110
Model Number
TAP00001JW
Datasheet
T20-FG
Model Number
TAP00001YU
Datasheet
PHE M10-FM
Model Number
TAP000010Z
Datasheet

GEA

80
NT100M Marine
50-800 kW · FW/SW/LO · Gasketed plate heat exchanger
Medium
FW/SW/LO
Type
Gasketed PHE Marine
Common Failures & Inspection Points
  • Fouling or scaling increases differential pressure and reduces heat-transfer performance
  • Gasket, seal or tube-joint deterioration causes external leakage
  • Plate or tube corrosion, erosion or cracking causes internal cross-contamination between fluid circuits
  • Blocked strainers or restricted valves reduce flow and produce abnormal inlet-to-outlet temperatures
  • Incorrect reassembly, venting or flow distribution after service causes leakage or poor thermal performance
Service: Trend inlet and outlet temperatures and differential pressure and inspect for leakage. Open or clean the exchanger only by the approved method and examine plates, tubes, gaskets or end covers for deposits, corrosion and deformation. Investigate any cross-contamination promptly. Refer to the manufacturer documentation for the exact figure for tightening, test pressure and wear limits.
Spare Parts: Carry the correct gaskets or seals, representative plates or tube-repair provisions where approved, port seals, strainers and compatible cleaning materials.
Strengths
  • High heat transfer efficiency in a small footprint
  • Glue‑free, clip‑on gasket system enables fast plate removal and inspection
  • Stainless‑steel frame provides good corrosion resistance for marine service
  • Modular design allows capacity scaling by adding or removing plates
  • Suitable for a wide range of media (FW, SW, low‑viscosity oil)
Weaknesses
  • Gasket material can compress set over time, requiring periodic replacement
  • Susceptible to chloride‑induced pitting on plates if water treatment is inadequate
  • Limited to moderate pressures/temperatures compared with welded plate exchangers
  • Fouling risk in high‑particulate seawater; requires regular cleaning schedule
Typical Vessels: TankerContainer shipBulk carrierCruise linerOffshore supply vesselNaval auxiliary ship
Certifications: DNV GL Type ApprovalABS Classification
Decision Guide: Choose if you need high heat‑transfer performance in limited space, want easy on‑site plate access with clip gaskets, and operate within moderate pressure/temperature limits. Avoid if the installation demands very high pressures, extreme temperature differentials, or will be exposed to untreated aggressive seawater that could accelerate pitting.
Use Cases: Central cooling, lubricating-oil cooling, fuel heating, HVAC, condensing and process duties.
Datasheet
GEA NT 50M unverified
5 m² surface
Exchanger type
plate
Surface area m2
5
Max. Pressure (bar)
25
Application
LO/FW cooling
Common Failures & Inspection Points
  • Fouling on the heat-transfer surfaces from scale, sludge, biological growth, or oil contamination reduces thermal performance and appears as rising outlet temperature or reduced temperature approach
  • Gasket, seal, tube, or plate leakage caused by ageing, corrosion, or mechanical damage can allow external leakage or cross-contamination between circuits
  • Restricted flow from debris or deposits raises differential pressure and can reduce downstream flow
  • Corrosion or erosion of wetted surfaces caused by unsuitable water chemistry, velocity, or material attack can produce pinhole leakage and contamination
  • Loose covers, plate packs, or connections after maintenance can cause leakage, unstable temperatures, or loss of system pressure
Service: Inspect for external leakage, corrosion, abnormal temperature difference, flow restriction, and evidence of cross-contamination. Trend inlet and outlet temperatures and differential pressure where instruments are fitted, clean the heat-transfer surfaces using an approved method, and verify tightening or assembly against the manufacturer documentation.
Spare Parts: Keep the applicable gasket or seal set, connection seals, and any model-specific plate, tube, or fastening items recommended by the manufacturer. For the exact spare quantities and part numbers, refer to the manufacturer documentation.
Use Cases: Used on merchant ships, offshore vessels, passenger ships, fishing vessels, and workboats wherever machinery or process fluids require controlled heating or cooling.
Datasheet
GEA NT 100M unverified
15 m² surface
Exchanger type
plate
Surface area m2
15
Max. Pressure (bar)
25
Application
central cooler
Common Failures & Inspection Points
  • Fouling on the heat-transfer surfaces from scale, sludge, biological growth, or oil contamination reduces thermal performance and appears as rising outlet temperature or reduced temperature approach
  • Gasket, seal, tube, or plate leakage caused by ageing, corrosion, or mechanical damage can allow external leakage or cross-contamination between circuits
  • Restricted flow from debris or deposits raises differential pressure and can reduce downstream flow
  • Corrosion or erosion of wetted surfaces caused by unsuitable water chemistry, velocity, or material attack can produce pinhole leakage and contamination
  • Loose covers, plate packs, or connections after maintenance can cause leakage, unstable temperatures, or loss of system pressure
Service: Inspect for external leakage, corrosion, abnormal temperature difference, flow restriction, and evidence of cross-contamination. Trend inlet and outlet temperatures and differential pressure where instruments are fitted, clean the heat-transfer surfaces using an approved method, and verify tightening or assembly against the manufacturer documentation.
Spare Parts: Keep the applicable gasket or seal set, connection seals, and any model-specific plate, tube, or fastening items recommended by the manufacturer. For the exact spare quantities and part numbers, refer to the manufacturer documentation.
Use Cases: Used on merchant ships, offshore vessels, passenger ships, fishing vessels, and workboats wherever machinery or process fluids require controlled heating or cooling.
Datasheet
GEA NT 150L unverified
30 m² surface
Exchanger type
plate
Surface area m2
30
Max. Pressure (bar)
25
Application
central cooler
Common Failures & Inspection Points
  • Fouling on the heat-transfer surfaces from scale, sludge, biological growth, or oil contamination reduces thermal performance and appears as rising outlet temperature or reduced temperature approach
  • Gasket, seal, tube, or plate leakage caused by ageing, corrosion, or mechanical damage can allow external leakage or cross-contamination between circuits
  • Restricted flow from debris or deposits raises differential pressure and can reduce downstream flow
  • Corrosion or erosion of wetted surfaces caused by unsuitable water chemistry, velocity, or material attack can produce pinhole leakage and contamination
  • Loose covers, plate packs, or connections after maintenance can cause leakage, unstable temperatures, or loss of system pressure
Service: Inspect for external leakage, corrosion, abnormal temperature difference, flow restriction, and evidence of cross-contamination. Trend inlet and outlet temperatures and differential pressure where instruments are fitted, clean the heat-transfer surfaces using an approved method, and verify tightening or assembly against the manufacturer documentation.
Spare Parts: Keep the applicable gasket or seal set, connection seals, and any model-specific plate, tube, or fastening items recommended by the manufacturer. For the exact spare quantities and part numbers, refer to the manufacturer documentation.
Use Cases: Used on merchant ships, offshore vessels, passenger ships, fishing vessels, and workboats wherever machinery or process fluids require controlled heating or cooling.
Datasheet
GEA NT 250L unverified
60 m² surface
Exchanger type
plate
Surface area m2
60
Max. Pressure (bar)
25
Application
main central cooler
Common Failures & Inspection Points
  • Fouling or scaling increases differential pressure and reduces heat-transfer performance
  • Gasket, seal or tube-joint deterioration causes external leakage
  • Plate or tube corrosion, erosion or cracking causes internal cross-contamination between fluid circuits
  • Blocked strainers or restricted valves reduce flow and produce abnormal inlet-to-outlet temperatures
  • Incorrect reassembly, venting or flow distribution after service causes leakage or poor thermal performance
Service: Trend inlet and outlet temperatures and differential pressure and inspect for leakage. Open or clean the exchanger only by the approved method and examine plates, tubes, gaskets or end covers for deposits, corrosion and deformation. Investigate any cross-contamination promptly. Refer to the manufacturer documentation for the exact figure for tightening, test pressure and wear limits.
Spare Parts: Carry the correct gaskets or seals, representative plates or tube-repair provisions where approved, port seals, strainers and compatible cleaning materials.
Use Cases: Central cooling, lubricating-oil cooling, fuel heating, HVAC, condensing and process duties.
Datasheet
GEA NTU 50 unverified
5 m² surface
Exchanger type
plate
Surface area m2
5
Max. Pressure (bar)
25
Application
FO heater
Common Failures & Inspection Points
  • Plate fouling or scale reduces heat transfer, noticed as poor outlet temperatures and increasing temperature approach
  • Gasket ageing or incorrect plate compression causes external leakage between plate edges
  • Plate perforation can allow cross-contamination, noticed as unexpected level, pressure or fluid-quality changes
  • Blocked passages increase pressure drop and reduce circulation through the exchanger
  • Corrosion or erosion damages plates and can lead to repeated leakage
Service: Inspect for external leakage, corrosion and evidence of cross-contamination, and trend inlet/outlet temperatures and pressure drop where instrumentation permits. During overhaul, keep plate order and orientation correct and examine plates, gaskets and frame condition. Exact tightening dimensions, plate limits and cleaning chemicals must follow manufacturer documentation.
Spare Parts: Carry the correct gasket set, selected replacement plates if the vessel's spares policy requires them, frame hardware and approved cleaning materials for the installed plate material and service.
Use Cases: Used for central cooling, lubricating-oil cooling, freshwater cooling, heating and other heat-transfer duties on most types of powered vessel.
Datasheet
GEA NTU 100 unverified
15 m² surface
Exchanger type
plate
Surface area m2
15
Max. Pressure (bar)
25
Application
FO heater/LO cooler
Common Failures & Inspection Points
  • Fouling or scaling increases differential pressure and reduces heat-transfer performance
  • Gasket, seal or tube-joint deterioration causes external leakage
  • Plate or tube corrosion, erosion or cracking causes internal cross-contamination between fluid circuits
  • Blocked strainers or restricted valves reduce flow and produce abnormal inlet-to-outlet temperatures
  • Incorrect reassembly, venting or flow distribution after service causes leakage or poor thermal performance
Service: Trend inlet and outlet temperatures and differential pressure and inspect for leakage. Open or clean the exchanger only by the approved method and examine plates, tubes, gaskets or end covers for deposits, corrosion and deformation. Investigate any cross-contamination promptly. Refer to the manufacturer documentation for the exact figure for tightening, test pressure and wear limits.
Spare Parts: Carry the correct gaskets or seals, representative plates or tube-repair provisions where approved, port seals, strainers and compatible cleaning materials.
Use Cases: Central cooling, lubricating-oil cooling, fuel heating, HVAC, condensing and process duties.
Datasheet
GEA VT 20 unverified
8 m² surface
Exchanger type
plate
Surface area m2
8
Max. Pressure (bar)
30
Application
high-pressure cooler
Common Failures & Inspection Points
  • Fouling or deposit build-up caused by poor combustion, contaminated fluid or exhaust soot can reduce heat transfer or flow and produce higher temperatures or loss of capacity
  • Leakage from tubes, gaskets, seals or casing caused by corrosion, thermal cycling or erosion can appear as fluid loss, pressure decay or cross-contamination
  • Burner, ignition or fuel-control faults where combustion is used can cause flame failure, unstable firing, smoke or shutdown alarms
  • Fan, pump or actuator faults caused by mechanical wear or electrical problems can reduce circulation, airflow or treatment effectiveness
  • Sensor, control or safety-interlock faults caused by drift, wiring defects or contamination can trigger nuisance trips or allow unstable operation
Service: Inspect for leakage, corrosion, deposits, refractory or insulation damage where fitted, abnormal temperatures and secure supports. Check burners, pumps, fans, valves, soot-cleaning or treatment components and safety devices relevant to the installed equipment. Refer to manufacturer documentation for exact operating limits, cleaning criteria and pressure or combustion test values.
Spare Parts: Carry maker-recommended gaskets and seals, burner or ignition service parts where applicable, filters, actuator or valve repair items, sensors, fuses and selected pump or fan consumables appropriate to the unit.
Use Cases: Steam production, heating, waste incineration, exhaust heat recovery, emissions control and related engine-room process duties on marine vessels.
Datasheet
GEA VT 40 unverified
20 m² surface
Exchanger type
plate
Surface area m2
20
Max. Pressure (bar)
30
Application
high-pressure cooler
Common Failures & Inspection Points
  • Fouling or deposit build-up caused by poor combustion, contaminated fluid or exhaust soot can reduce heat transfer or flow and produce higher temperatures or loss of capacity
  • Leakage from tubes, gaskets, seals or casing caused by corrosion, thermal cycling or erosion can appear as fluid loss, pressure decay or cross-contamination
  • Burner, ignition or fuel-control faults where combustion is used can cause flame failure, unstable firing, smoke or shutdown alarms
  • Fan, pump or actuator faults caused by mechanical wear or electrical problems can reduce circulation, airflow or treatment effectiveness
  • Sensor, control or safety-interlock faults caused by drift, wiring defects or contamination can trigger nuisance trips or allow unstable operation
Service: Inspect for leakage, corrosion, deposits, refractory or insulation damage where fitted, abnormal temperatures and secure supports. Check burners, pumps, fans, valves, soot-cleaning or treatment components and safety devices relevant to the installed equipment. Refer to manufacturer documentation for exact operating limits, cleaning criteria and pressure or combustion test values.
Spare Parts: Carry maker-recommended gaskets and seals, burner or ignition service parts where applicable, filters, actuator or valve repair items, sensors, fuses and selected pump or fan consumables appropriate to the unit.
Use Cases: Steam production, heating, waste incineration, exhaust heat recovery, emissions control and related engine-room process duties on marine vessels.
Datasheet
GEA VT 80 unverified
40 m² surface
Exchanger type
plate
Surface area m2
40
Max. Pressure (bar)
30
Application
high-pressure cooler
Common Failures & Inspection Points
  • Fouling or deposit build-up caused by poor combustion, contaminated fluid or exhaust soot can reduce heat transfer or flow and produce higher temperatures or loss of capacity
  • Leakage from tubes, gaskets, seals or casing caused by corrosion, thermal cycling or erosion can appear as fluid loss, pressure decay or cross-contamination
  • Burner, ignition or fuel-control faults where combustion is used can cause flame failure, unstable firing, smoke or shutdown alarms
  • Fan, pump or actuator faults caused by mechanical wear or electrical problems can reduce circulation, airflow or treatment effectiveness
  • Sensor, control or safety-interlock faults caused by drift, wiring defects or contamination can trigger nuisance trips or allow unstable operation
Service: Inspect for leakage, corrosion, deposits, refractory or insulation damage where fitted, abnormal temperatures and secure supports. Check burners, pumps, fans, valves, soot-cleaning or treatment components and safety devices relevant to the installed equipment. Refer to manufacturer documentation for exact operating limits, cleaning criteria and pressure or combustion test values.
Spare Parts: Carry maker-recommended gaskets and seals, burner or ignition service parts where applicable, filters, actuator or valve repair items, sensors, fuses and selected pump or fan consumables appropriate to the unit.
Use Cases: Steam production, heating, waste incineration, exhaust heat recovery, emissions control and related engine-room process duties on marine vessels.
Datasheet
GEA FA 184 unverified
15 m² surface
Exchanger type
plate
Surface area m2
15
Max. Pressure (bar)
25
Application
free-flow FW generator
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces from scale, sludge, biological growth, or oil contamination reduces thermal performance and appears as rising outlet temperature
  • Gasket, seal, tube, or plate leakage from ageing, corrosion, or mechanical damage causes external leakage or cross-contamination
  • Restricted flow from debris or deposits raises pressure drop and reduces downstream flow
  • Corrosion or erosion of wetted surfaces from unsuitable water chemistry, velocity, or material attack produces pinhole leakage
  • Loose covers, plate packs, or connections after maintenance cause leakage, unstable temperatures, or loss of system pressure
Service: Inspect external leakage, corrosion, temperature difference, flow restriction, and evidence of cross-contamination. Trend inlet and outlet temperatures and differential pressure where instruments are fitted, clean heat-transfer surfaces using an approved method, and verify assembly against manufacturer documentation.
Spare Parts: Keep the applicable gasket or seal set, connection seals, and any model-specific plate, tube, or fastening items recommended by the manufacturer.
Use Cases: Used on merchant ships, offshore vessels, passenger ships, fishing vessels, and workboats wherever machinery or process fluids require controlled heating or cooling.
Datasheet
GEA FA 250 unverified
30 m² surface
Exchanger type
plate
Surface area m2
30
Max. Pressure (bar)
25
Application
free-flow FW generator
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces from scale, sludge, biological growth, or oil contamination reduces thermal performance and appears as rising outlet temperature
  • Gasket, seal, tube, or plate leakage from ageing, corrosion, or mechanical damage causes external leakage or cross-contamination
  • Restricted flow from debris or deposits raises pressure drop and reduces downstream flow
  • Corrosion or erosion of wetted surfaces from unsuitable water chemistry, velocity, or material attack produces pinhole leakage
  • Loose covers, plate packs, or connections after maintenance cause leakage, unstable temperatures, or loss of system pressure
Service: Inspect external leakage, corrosion, temperature difference, flow restriction, and evidence of cross-contamination. Trend inlet and outlet temperatures and differential pressure where instruments are fitted, clean heat-transfer surfaces using an approved method, and verify assembly against manufacturer documentation.
Spare Parts: Keep the applicable gasket or seal set, connection seals, and any model-specific plate, tube, or fastening items recommended by the manufacturer.
Use Cases: Used on merchant ships, offshore vessels, passenger ships, fishing vessels, and workboats wherever machinery or process fluids require controlled heating or cooling.
Datasheet
GEA GEA NT 50 Series
GEA NT 50 Series unverified
Model Family
NT 50
Heat Exchanger Type
plate_heat_exchanger
Common Failures & Inspection Points
  • Plate fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Gasket deterioration caused by age, temperature, chemicals or incorrect compression, resulting in external leakage or cross-leakage paths
  • Plate corrosion or pinholing caused by incompatible fluid chemistry, resulting in contamination between circuits
  • Blocked channels caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame or tightening problems caused by incorrect assembly or piping stress, resulting in leakage and uneven gasket loading
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect the frame, tightening arrangement, port connections and visible gasket edges for leakage or distortion. Clean plates using methods compatible with plate and gasket materials and inspect individual plates for corrosion, deformation or cracking when opened. Confirm plate order and orientation during reassembly. Support connected piping independently so nozzle loads are not transferred into the frame. Refer to the manufacturer documentation for the exact tightening dimension, gasket material, cleaning chemistry and pressure-test criteria.
Spare Parts: Keep a set of model-correct plate gaskets, selected spare plates, port gaskets and any special frame sealing components recommended by the manufacturer. For critical coolers, enough plates and gaskets to recover from localized damage can reduce downtime. Verify materials and plate pattern against the exact serial number.
Use Cases: Central cooling, lubricating-oil cooling, freshwater heating, HVAC and other liquid-to-liquid heat-transfer duties on ships and offshore units.
Datasheet
GEA GEA NT 50 50kW LO cooling
GEA NT 50 50kW LO cooling unverified
Model Family
NT 50
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
50
Application
LO cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Plate/tube fouling from scale, sludge or marine growth, typically indicated by reduced temperature approach, high pressure drop or insufficient cooling/heating
  • Gasket or braze leakage from ageing, chemical attack or thermal stress, typically indicated by external leakage or cross-contamination
  • Corrosion/erosion of heat-transfer surfaces, typically indicated by fluid contamination, pinhole leakage or loss of performance
  • Flow blockage or air locking, typically indicated by unstable temperatures or reduced flow
  • Incorrect tightening or mechanical distortion after maintenance, typically indicated by gasket leakage or uneven plate compression
Service: Inspect for leakage, fouling, corrosion and abnormal pressure drop; clean heat-transfer surfaces using approved methods, inspect gaskets and verify connected strainers and flow conditions; exact tightening dimensions and test pressures come from manufacturer documentation.
Spare Parts: Keep approved gasket sets for plate units, sealing materials, vent/drain fittings and replacement plates or service kits according to criticality.
Use Cases: Used throughout shipboard cooling, heating, oil treatment, HVAC and freshwater systems. This entry applies specifically to the Plate Heat Exchanger variant identified as GEA GEA NT 50 50kW LO cooling.
Datasheet
GEA GEA NT 50 50kW FW cooling
GEA NT 50 50kW FW cooling unverified
Model Family
NT 50
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
50
Application
FW cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Plate/tube fouling from scale, sludge or marine growth, typically indicated by reduced temperature approach, high pressure drop or insufficient cooling/heating
  • Gasket or braze leakage from ageing, chemical attack or thermal stress, typically indicated by external leakage or cross-contamination
  • Corrosion/erosion of heat-transfer surfaces, typically indicated by fluid contamination, pinhole leakage or loss of performance
  • Flow blockage or air locking, typically indicated by unstable temperatures or reduced flow
  • Incorrect tightening or mechanical distortion after maintenance, typically indicated by gasket leakage or uneven plate compression
Service: Inspect for leakage, fouling, corrosion and abnormal pressure drop; clean heat-transfer surfaces using approved methods, inspect gaskets and verify connected strainers and flow conditions; exact tightening dimensions and test pressures come from manufacturer documentation.
Spare Parts: Keep approved gasket sets for plate units, sealing materials, vent/drain fittings and replacement plates or service kits according to criticality.
Use Cases: Used throughout shipboard cooling, heating, oil treatment, HVAC and freshwater systems. This entry applies specifically to the Plate Heat Exchanger variant identified as GEA GEA NT 50 50kW FW cooling.
Datasheet
GEA GEA NT 50 100kW LO cooling
GEA NT 50 100kW LO cooling unverified
Model Family
NT 50
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
100
Application
LO cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Plate/tube fouling from scale, sludge or marine growth, typically indicated by reduced temperature approach, high pressure drop or insufficient cooling/heating
  • Gasket or braze leakage from ageing, chemical attack or thermal stress, typically indicated by external leakage or cross-contamination
  • Corrosion/erosion of heat-transfer surfaces, typically indicated by fluid contamination, pinhole leakage or loss of performance
  • Flow blockage or air locking, typically indicated by unstable temperatures or reduced flow
  • Incorrect tightening or mechanical distortion after maintenance, typically indicated by gasket leakage or uneven plate compression
Service: Inspect for leakage, fouling, corrosion and abnormal pressure drop; clean heat-transfer surfaces using approved methods, inspect gaskets and verify connected strainers and flow conditions; exact tightening dimensions and test pressures come from manufacturer documentation.
Spare Parts: Keep approved gasket sets for plate units, sealing materials, vent/drain fittings and replacement plates or service kits according to criticality.
Use Cases: Used throughout shipboard cooling, heating, oil treatment, HVAC and freshwater systems. This entry applies specifically to the Plate Heat Exchanger variant identified as GEA GEA NT 50 100kW LO cooling.
Datasheet
GEA GEA NT 50 100kW FW cooling
GEA NT 50 100kW FW cooling unverified
Model Family
NT 50
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
100
Application
FW cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Plate/tube fouling from scale, sludge or marine growth, typically indicated by reduced temperature approach, high pressure drop or insufficient cooling/heating
  • Gasket or braze leakage from ageing, chemical attack or thermal stress, typically indicated by external leakage or cross-contamination
  • Corrosion/erosion of heat-transfer surfaces, typically indicated by fluid contamination, pinhole leakage or loss of performance
  • Flow blockage or air locking, typically indicated by unstable temperatures or reduced flow
  • Incorrect tightening or mechanical distortion after maintenance, typically indicated by gasket leakage or uneven plate compression
Service: Inspect for leakage, fouling, corrosion and abnormal pressure drop; clean heat-transfer surfaces using approved methods, inspect gaskets and verify connected strainers and flow conditions; exact tightening dimensions and test pressures come from manufacturer documentation.
Spare Parts: Keep approved gasket sets for plate units, sealing materials, vent/drain fittings and replacement plates or service kits according to criticality.
Use Cases: Used throughout shipboard cooling, heating, oil treatment, HVAC and freshwater systems. This entry applies specifically to the Plate Heat Exchanger variant identified as GEA GEA NT 50 100kW FW cooling.
Datasheet
GEA GEA NT 50 200kW LO cooling
GEA NT 50 200kW LO cooling unverified
Model Family
NT 50
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
200
Application
LO cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Plate/tube fouling from scale, sludge or marine growth, typically indicated by reduced temperature approach, high pressure drop or insufficient cooling/heating
  • Gasket or braze leakage from ageing, chemical attack or thermal stress, typically indicated by external leakage or cross-contamination
  • Corrosion/erosion of heat-transfer surfaces, typically indicated by fluid contamination, pinhole leakage or loss of performance
  • Flow blockage or air locking, typically indicated by unstable temperatures or reduced flow
  • Incorrect tightening or mechanical distortion after maintenance, typically indicated by gasket leakage or uneven plate compression
Service: Inspect for leakage, fouling, corrosion and abnormal pressure drop; clean heat-transfer surfaces using approved methods, inspect gaskets and verify connected strainers and flow conditions; exact tightening dimensions and test pressures come from manufacturer documentation.
Spare Parts: Keep approved gasket sets for plate units, sealing materials, vent/drain fittings and replacement plates or service kits according to criticality.
Use Cases: Used throughout shipboard cooling, heating, oil treatment, HVAC and freshwater systems. This entry applies specifically to the Plate Heat Exchanger variant identified as GEA GEA NT 50 200kW LO cooling.
Datasheet
GEA GEA NT 50 200kW FW cooling
GEA NT 50 200kW FW cooling unverified
Model Family
NT 50
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
200
Application
FW cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Plate/tube fouling from scale, sludge or marine growth, typically indicated by reduced temperature approach, high pressure drop or insufficient cooling/heating
  • Gasket or braze leakage from ageing, chemical attack or thermal stress, typically indicated by external leakage or cross-contamination
  • Corrosion/erosion of heat-transfer surfaces, typically indicated by fluid contamination, pinhole leakage or loss of performance
  • Flow blockage or air locking, typically indicated by unstable temperatures or reduced flow
  • Incorrect tightening or mechanical distortion after maintenance, typically indicated by gasket leakage or uneven plate compression
Service: Inspect for leakage, fouling, corrosion and abnormal pressure drop; clean heat-transfer surfaces using approved methods, inspect gaskets and verify connected strainers and flow conditions; exact tightening dimensions and test pressures come from manufacturer documentation.
Spare Parts: Keep approved gasket sets for plate units, sealing materials, vent/drain fittings and replacement plates or service kits according to criticality.
Use Cases: Used throughout shipboard cooling, heating, oil treatment, HVAC and freshwater systems. This entry applies specifically to the Plate Heat Exchanger variant identified as GEA GEA NT 50 200kW FW cooling.
Datasheet
GEA GEA NT 50 500kW LO cooling
GEA NT 50 500kW LO cooling unverified
Model Family
NT 50
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
500
Application
LO cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Plate/tube fouling from scale, sludge or marine growth, typically indicated by reduced temperature approach, high pressure drop or insufficient cooling/heating
  • Gasket or braze leakage from ageing, chemical attack or thermal stress, typically indicated by external leakage or cross-contamination
  • Corrosion/erosion of heat-transfer surfaces, typically indicated by fluid contamination, pinhole leakage or loss of performance
  • Flow blockage or air locking, typically indicated by unstable temperatures or reduced flow
  • Incorrect tightening or mechanical distortion after maintenance, typically indicated by gasket leakage or uneven plate compression
Service: Inspect for leakage, fouling, corrosion and abnormal pressure drop; clean heat-transfer surfaces using approved methods, inspect gaskets and verify connected strainers and flow conditions; exact tightening dimensions and test pressures come from manufacturer documentation.
Spare Parts: Keep approved gasket sets for plate units, sealing materials, vent/drain fittings and replacement plates or service kits according to criticality.
Use Cases: Used throughout shipboard cooling, heating, oil treatment, HVAC and freshwater systems. This entry applies specifically to the Plate Heat Exchanger variant identified as GEA GEA NT 50 500kW LO cooling.
Datasheet
GEA GEA NT 50 500kW FW cooling
GEA NT 50 500kW FW cooling unverified
Model Family
NT 50
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
500
Application
FW cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Plate/tube fouling from scale, sludge or marine growth, typically indicated by reduced temperature approach, high pressure drop or insufficient cooling/heating
  • Gasket or braze leakage from ageing, chemical attack or thermal stress, typically indicated by external leakage or cross-contamination
  • Corrosion/erosion of heat-transfer surfaces, typically indicated by fluid contamination, pinhole leakage or loss of performance
  • Flow blockage or air locking, typically indicated by unstable temperatures or reduced flow
  • Incorrect tightening or mechanical distortion after maintenance, typically indicated by gasket leakage or uneven plate compression
Service: Inspect for leakage, fouling, corrosion and abnormal pressure drop; clean heat-transfer surfaces using approved methods, inspect gaskets and verify connected strainers and flow conditions; exact tightening dimensions and test pressures come from manufacturer documentation.
Spare Parts: Keep approved gasket sets for plate units, sealing materials, vent/drain fittings and replacement plates or service kits according to criticality.
Use Cases: Used throughout shipboard cooling, heating, oil treatment, HVAC and freshwater systems. This entry applies specifically to the Plate Heat Exchanger variant identified as GEA GEA NT 50 500kW FW cooling.
Datasheet
GEA GEA NT 100 Series
GEA NT 100 Series unverified
Model Family
NT 100
Heat Exchanger Type
plate_heat_exchanger
Common Failures & Inspection Points
  • Plate fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Gasket deterioration caused by age, temperature, chemicals or incorrect compression, resulting in external leakage or cross-leakage paths
  • Plate corrosion or pinholing caused by incompatible fluid chemistry, resulting in contamination between circuits
  • Blocked channels caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame or tightening problems caused by incorrect assembly or piping stress, resulting in leakage and uneven gasket loading
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect the frame, tightening arrangement, port connections and visible gasket edges for leakage or distortion. Clean plates using methods compatible with plate and gasket materials and inspect individual plates for corrosion, deformation or cracking when opened. Confirm plate order and orientation during reassembly. Support connected piping independently so nozzle loads are not transferred into the frame. Refer to the manufacturer documentation for the exact tightening dimension, gasket material, cleaning chemistry and pressure-test criteria.
Spare Parts: Keep a set of model-correct plate gaskets, selected spare plates, port gaskets and any special frame sealing components recommended by the manufacturer. For critical coolers, enough plates and gaskets to recover from localized damage can reduce downtime. Verify materials and plate pattern against the exact serial number.
Use Cases: Central cooling, lubricating-oil cooling, freshwater heating, HVAC and other liquid-to-liquid heat-transfer duties on ships and offshore units.
Datasheet
GEA GEA NT 100 100kW LO cooling
GEA NT 100 100kW LO cooling unverified
Model Family
NT 100
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
100
Application
LO cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Fouling or scaling increases differential pressure and reduces heat-transfer performance
  • Gasket, braze, seal or tube-joint deterioration causes external leakage
  • Plate or tube corrosion, erosion or cracking causes internal cross-contamination between fluid circuits
  • Blocked strainers or restricted valves reduce flow and produce abnormal inlet-to-outlet temperatures
  • Incorrect reassembly, venting or flow distribution after service causes leakage or poor thermal performance
Service: Trend inlet and outlet temperatures and differential pressure and inspect for leakage. Open or clean the exchanger only by the approved method and examine plates, tubes, gaskets or end covers for deposits, corrosion and deformation. Investigate cross-contamination promptly. Refer to the manufacturer documentation for the exact figure for tightening, test pressure and wear limits.
Spare Parts: Carry the correct gaskets or seals, representative plates or tube-repair provisions where approved, port seals, strainers and compatible cleaning materials.
Use Cases: Central cooling, lubricating-oil cooling, fuel heating, HVAC, condensing and process duties.
Datasheet
GEA NT 100 100kW Central cooling unverified
Model Family
NT 100
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
100
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Heat-transfer surface fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Seal, gasket, braze or tube leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate or tube corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked flow passages caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame, cover or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or covers, port connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with installed materials and deposits. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or cover seals, selected spare plates or approved tube-repair materials as applicable, port seals and manufacturer-recommended corrosion-protection parts. Brazed units are normally replaced as an assembly after an internal structural leak.
Use Cases: It is used for cooling and heating duties on merchant ships, passenger vessels, offshore units or other vessel types where this equipment category is fitted.
Datasheet
GEA NT 100 200kW LO cooling unverified
Model Family
NT 100
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
200
Application
LO cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Fouling or scaling increases differential pressure and reduces heat-transfer performance
  • Gasket, braze, seal or tube-joint deterioration causes external leakage
  • Plate or tube corrosion, erosion or cracking causes internal cross-contamination between fluid circuits
  • Blocked strainers or restricted valves reduce flow and produce abnormal inlet-to-outlet temperatures
  • Incorrect reassembly, venting or flow distribution after service causes leakage or poor thermal performance
Service: Trend inlet and outlet temperatures and differential pressure and inspect for leakage. Open or clean the exchanger only by the approved method and examine plates, tubes, gaskets or end covers for deposits, corrosion and deformation. Investigate cross-contamination promptly. Refer to the manufacturer documentation for the exact figure for tightening, test pressure and wear limits.
Spare Parts: Carry the correct gaskets or seals, representative plates or tube-repair provisions where approved, port seals, strainers and compatible cleaning materials.
Use Cases: Central cooling, lubricating-oil cooling, fuel heating, HVAC, condensing and process duties.
Datasheet
GEA NT 100 200kW Central cooling unverified
Model Family
NT 100
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
200
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Heat-transfer surface fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Seal, gasket, braze or tube leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate or tube corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked flow passages caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame, cover or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or covers, port connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with installed materials and deposits. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or cover seals, selected spare plates or approved tube-repair materials as applicable, port seals and manufacturer-recommended corrosion-protection parts. Brazed units are normally replaced as an assembly after an internal structural leak.
Use Cases: It is used for cooling and heating duties on merchant ships, passenger vessels, offshore units or other vessel types where this equipment category is fitted.
Datasheet
GEA GEA NT 100 500kW LO cooling
GEA NT 100 500kW LO cooling unverified
Model Family
NT 100
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
500
Application
LO cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Fouling or scaling increases differential pressure and reduces heat-transfer performance
  • Gasket, braze, seal or tube-joint deterioration causes external leakage
  • Plate or tube corrosion, erosion or cracking causes internal cross-contamination between fluid circuits
  • Blocked strainers or restricted valves reduce flow and produce abnormal inlet-to-outlet temperatures
  • Incorrect reassembly, venting or flow distribution after service causes leakage or poor thermal performance
Service: Trend inlet and outlet temperatures and differential pressure and inspect for leakage. Open or clean the exchanger only by the approved method and examine plates, tubes, gaskets or end covers for deposits, corrosion and deformation. Investigate cross-contamination promptly. Refer to the manufacturer documentation for the exact figure for tightening, test pressure and wear limits.
Spare Parts: Carry the correct gaskets or seals, representative plates or tube-repair provisions where approved, port seals, strainers and compatible cleaning materials.
Use Cases: Central cooling, lubricating-oil cooling, fuel heating, HVAC, condensing and process duties.
Datasheet
GEA GEA NT 100 500kW Central cooling
GEA NT 100 500kW Central cooling unverified
Model Family
NT 100
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
500
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Heat-transfer surface fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Seal, gasket, braze or tube leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate or tube corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked flow passages caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame, cover or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or covers, port connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with installed materials and deposits. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or cover seals, selected spare plates or approved tube-repair materials as applicable, port seals and manufacturer-recommended corrosion-protection parts. Brazed units are normally replaced as an assembly after an internal structural leak.
Use Cases: It is used for cooling and heating duties on merchant ships, passenger vessels, offshore units or other vessel types where this equipment category is fitted.
Datasheet
GEA GEA NT 100 1000kW LO cooling
GEA NT 100 1000kW LO cooling unverified
Model Family
NT 100
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
1000
Application
LO cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Fouling or scaling increases differential pressure and reduces heat-transfer performance
  • Gasket, braze, seal or tube-joint deterioration causes external leakage
  • Plate or tube corrosion, erosion or cracking causes internal cross-contamination between fluid circuits
  • Blocked strainers or restricted valves reduce flow and produce abnormal inlet-to-outlet temperatures
  • Incorrect reassembly, venting or flow distribution after service causes leakage or poor thermal performance
Service: Trend inlet and outlet temperatures and differential pressure and inspect for leakage. Open or clean the exchanger only by the approved method and examine plates, tubes, gaskets or end covers for deposits, corrosion and deformation. Investigate cross-contamination promptly. Refer to the manufacturer documentation for the exact figure for tightening, test pressure and wear limits.
Spare Parts: Carry the correct gaskets or seals, representative plates or tube-repair provisions where approved, port seals, strainers and compatible cleaning materials.
Use Cases: Central cooling, lubricating-oil cooling, fuel heating, HVAC, condensing and process duties.
Datasheet
GEA NT 100 1000kW Central cooling unverified
Model Family
NT 100
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
1000
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Heat-transfer surface fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Seal, gasket, braze or tube leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate or tube corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked flow passages caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame, cover or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or covers, port connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with installed materials and deposits. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or cover seals, selected spare plates or approved tube-repair materials as applicable, port seals and manufacturer-recommended corrosion-protection parts. Brazed units are normally replaced as an assembly after an internal structural leak.
Use Cases: It is used for cooling and heating duties on merchant ships, passenger vessels, offshore units or other vessel types where this equipment category is fitted.
Datasheet
GEA NT 150 Series unverified
Model Family
NT 150
Heat Exchanger Type
plate_heat_exchanger
Common Failures & Inspection Points
  • Plate fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Gasket deterioration caused by age, temperature, chemicals or incorrect compression, resulting in external leakage or cross-leakage paths
  • Plate corrosion or pinholing caused by incompatible fluid chemistry, resulting in contamination between circuits
  • Blocked channels caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame or tightening problems caused by incorrect assembly or piping stress, resulting in leakage and uneven gasket loading
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect the frame, tightening arrangement, port connections and visible gasket edges for leakage or distortion. Clean plates using methods compatible with plate and gasket materials and inspect individual plates for corrosion, deformation or cracking when opened. Confirm plate order and orientation during reassembly. Support connected piping independently so nozzle loads are not transferred into the frame. Refer to the manufacturer documentation for the exact tightening dimension, gasket material, cleaning chemistry and pressure-test criteria.
Spare Parts: Keep a set of model-correct plate gaskets, selected spare plates, port gaskets and any special frame sealing components recommended by the manufacturer. For critical coolers, enough plates and gaskets to recover from localized damage can reduce downtime. Verify materials and plate pattern against the exact serial number.
Use Cases: Central cooling, lubricating-oil cooling, freshwater heating, HVAC and other liquid-to-liquid heat-transfer duties on ships and offshore units.
Datasheet
GEA GEA NT 150 200kW Central cooling
GEA NT 150 200kW Central cooling unverified
Model Family
NT 150
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
200
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Heat-transfer surface fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Seal, gasket, braze or tube leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate or tube corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked flow passages caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame, cover or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or covers, port connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with installed materials and deposits. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or cover seals, selected spare plates or approved tube-repair materials as applicable, port seals and manufacturer-recommended corrosion-protection parts. Brazed units are normally replaced as an assembly after an internal structural leak.
Use Cases: It is used for cooling and heating duties on merchant ships, passenger vessels, offshore units or other vessel types where this equipment category is fitted.
Datasheet
GEA NT 150 200kW FW cooling unverified
Model Family
NT 150
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
200
Application
FW cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Fouling or scaling increases differential pressure and reduces heat-transfer performance
  • Gasket, braze, seal or tube-joint deterioration causes external leakage
  • Plate or tube corrosion, erosion or cracking causes internal cross-contamination between fluid circuits
  • Blocked strainers or restricted valves reduce flow and produce abnormal inlet-to-outlet temperatures
  • Incorrect reassembly, venting or flow distribution after service causes leakage or poor thermal performance
Service: Trend inlet and outlet temperatures and differential pressure and inspect for leakage. Open or clean the exchanger only by the approved method and examine plates, tubes, gaskets or end covers for deposits, corrosion and deformation. Investigate cross-contamination promptly. Refer to the manufacturer documentation for the exact figure for tightening, test pressure and wear limits.
Spare Parts: Carry the correct gaskets or seals, representative plates or tube-repair provisions where approved, port seals, strainers and compatible cleaning materials.
Use Cases: Central cooling, lubricating-oil cooling, fuel heating, HVAC, condensing and process duties.
Datasheet
GEA GEA NT 150 500kW Central cooling
GEA NT 150 500kW Central cooling unverified
Model Family
NT 150
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
500
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Heat-transfer surface fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Seal, gasket, braze or tube leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate or tube corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked flow passages caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame, cover or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or covers, port connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with installed materials and deposits. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or cover seals, selected spare plates or approved tube-repair materials as applicable, port seals and manufacturer-recommended corrosion-protection parts. Brazed units are normally replaced as an assembly after an internal structural leak.
Use Cases: It is used for cooling and heating duties on merchant ships, passenger vessels, offshore units or other vessel types where this equipment category is fitted.
Datasheet
GEA NT 150 500kW FW cooling unverified
Model Family
NT 150
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
500
Application
FW cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Fouling or scaling increases differential pressure and reduces heat-transfer performance
  • Gasket, braze, seal or tube-joint deterioration causes external leakage
  • Plate or tube corrosion, erosion or cracking causes internal cross-contamination between fluid circuits
  • Blocked strainers or restricted valves reduce flow and produce abnormal inlet-to-outlet temperatures
  • Incorrect reassembly, venting or flow distribution after service causes leakage or poor thermal performance
Service: Trend inlet and outlet temperatures and differential pressure and inspect for leakage. Open or clean the exchanger only by the approved method and examine plates, tubes, gaskets or end covers for deposits, corrosion and deformation. Investigate cross-contamination promptly. Refer to the manufacturer documentation for the exact figure for tightening, test pressure and wear limits.
Spare Parts: Carry the correct gaskets or seals, representative plates or tube-repair provisions where approved, port seals, strainers and compatible cleaning materials.
Use Cases: Central cooling, lubricating-oil cooling, fuel heating, HVAC, condensing and process duties.
Datasheet
GEA NT 150 1000kW Central cooling unverified
Model Family
NT 150
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
1000
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Heat-transfer surface fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Seal, gasket, braze or tube leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate or tube corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked flow passages caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame, cover or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or covers, port connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with installed materials and deposits. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or cover seals, selected spare plates or approved tube-repair materials as applicable, port seals and manufacturer-recommended corrosion-protection parts. Brazed units are normally replaced as an assembly after an internal structural leak.
Use Cases: It is used for cooling and heating duties on merchant ships, passenger vessels, offshore units or other vessel types where this equipment category is fitted.
Datasheet
GEA NT 150 1000kW FW cooling unverified
Model Family
NT 150
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
1000
Application
FW cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Fouling or scaling increases differential pressure and reduces heat-transfer performance
  • Gasket, braze, seal or tube-joint deterioration causes external leakage
  • Plate or tube corrosion, erosion or cracking causes internal cross-contamination between fluid circuits
  • Blocked strainers or restricted valves reduce flow and produce abnormal inlet-to-outlet temperatures
  • Incorrect reassembly, venting or flow distribution after service causes leakage or poor thermal performance
Service: Trend inlet and outlet temperatures and differential pressure and inspect for leakage. Open or clean the exchanger only by the approved method and examine plates, tubes, gaskets or end covers for deposits, corrosion and deformation. Investigate cross-contamination promptly. Refer to the manufacturer documentation for the exact figure for tightening, test pressure and wear limits.
Spare Parts: Carry the correct gaskets or seals, representative plates or tube-repair provisions where approved, port seals, strainers and compatible cleaning materials.
Use Cases: Central cooling, lubricating-oil cooling, fuel heating, HVAC, condensing and process duties.
Datasheet
GEA NT 150 2000kW Central cooling unverified
Model Family
NT 150
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
2000
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Heat-transfer surface fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Seal, gasket, braze or tube leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate or tube corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked flow passages caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame, cover or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or covers, port connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with installed materials and deposits. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or cover seals, selected spare plates or approved tube-repair materials as applicable, port seals and manufacturer-recommended corrosion-protection parts. Brazed units are normally replaced as an assembly after an internal structural leak.
Use Cases: It is used for cooling and heating duties on merchant ships, passenger vessels, offshore units or other vessel types where this equipment category is fitted.
Datasheet
GEA NT 150 2000kW FW cooling unverified
Model Family
NT 150
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
2000
Application
FW cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Fouling or scaling increases differential pressure and reduces heat-transfer performance
  • Gasket, braze, seal or tube-joint deterioration causes external leakage
  • Plate or tube corrosion, erosion or cracking causes internal cross-contamination between fluid circuits
  • Blocked strainers or restricted valves reduce flow and produce abnormal inlet-to-outlet temperatures
  • Incorrect reassembly, venting or flow distribution after service causes leakage or poor thermal performance
Service: Trend inlet and outlet temperatures and differential pressure and inspect for leakage. Open or clean the exchanger only by the approved method and examine plates, tubes, gaskets or end covers for deposits, corrosion and deformation. Investigate cross-contamination promptly. Refer to the manufacturer documentation for the exact figure for tightening, test pressure and wear limits.
Spare Parts: Carry the correct gaskets or seals, representative plates or tube-repair provisions where approved, port seals, strainers and compatible cleaning materials.
Use Cases: Central cooling, lubricating-oil cooling, fuel heating, HVAC, condensing and process duties.
Datasheet
GEA NT 250 Series unverified
Model Family
NT 250
Heat Exchanger Type
plate_heat_exchanger
Common Failures & Inspection Points
  • Plate fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Gasket deterioration caused by age, temperature, chemicals or incorrect compression, resulting in external leakage or cross-leakage paths
  • Plate corrosion or pinholing caused by incompatible fluid chemistry, resulting in contamination between circuits
  • Blocked channels caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame or tightening problems caused by incorrect assembly or piping stress, resulting in leakage and uneven gasket loading
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect the frame, tightening arrangement, port connections and visible gasket edges for leakage or distortion. Clean plates using methods compatible with plate and gasket materials and inspect individual plates for corrosion, deformation or cracking when opened. Confirm plate order and orientation during reassembly. Support connected piping independently so nozzle loads are not transferred into the frame. Refer to the manufacturer documentation for the exact tightening dimension, gasket material, cleaning chemistry and pressure-test criteria.
Spare Parts: Keep a set of model-correct plate gaskets, selected spare plates, port gaskets and any special frame sealing components recommended by the manufacturer. For critical coolers, enough plates and gaskets to recover from localized damage can reduce downtime. Verify materials and plate pattern against the exact serial number.
Use Cases: Central cooling, lubricating-oil cooling, freshwater heating, HVAC and other liquid-to-liquid heat-transfer duties on ships and offshore units.
Datasheet
GEA NT 250 500kW Central cooling unverified
Model Family
NT 250
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
500
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Heat-transfer surface fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Seal, gasket, braze or tube leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate or tube corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked flow passages caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame, cover or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or covers, port connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with installed materials and deposits. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or cover seals, selected spare plates or approved tube-repair materials as applicable, port seals and manufacturer-recommended corrosion-protection parts. Brazed units are normally replaced as an assembly after an internal structural leak.
Use Cases: It is used for cooling and heating duties on merchant ships, passenger vessels, offshore units or other vessel types where this equipment category is fitted.
Datasheet
GEA GEA NT 250 500kW Jacket water cooling
GEA NT 250 500kW Jacket water cooling unverified
Model Family
NT 250
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
500
Application
Jacket water cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet
GEA NT 250 1000kW Central cooling unverified
Model Family
NT 250
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
1000
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Heat-transfer surface fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Seal, gasket, braze or tube leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate or tube corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked flow passages caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame, cover or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or covers, port connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with installed materials and deposits. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or cover seals, selected spare plates or approved tube-repair materials as applicable, port seals and manufacturer-recommended corrosion-protection parts. Brazed units are normally replaced as an assembly after an internal structural leak.
Use Cases: It is used for cooling and heating duties on merchant ships, passenger vessels, offshore units or other vessel types where this equipment category is fitted.
Datasheet
GEA NT 250 1000kW Jacket water cooling unverified
Model Family
NT 250
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
1000
Application
Jacket water cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet
GEA NT 250 2000kW Central cooling unverified
Model Family
NT 250
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
2000
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Heat-transfer surface fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Seal, gasket, braze or tube leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate or tube corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked flow passages caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame, cover or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or covers, port connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with installed materials and deposits. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or cover seals, selected spare plates or approved tube-repair materials as applicable, port seals and manufacturer-recommended corrosion-protection parts. Brazed units are normally replaced as an assembly after an internal structural leak.
Use Cases: It is used for cooling and heating duties on merchant ships, passenger vessels, offshore units or other vessel types where this equipment category is fitted.
Datasheet
GEA NT 250 2000kW Jacket water cooling unverified
Model Family
NT 250
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
2000
Application
Jacket water cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet
GEA NT 250 3000kW Central cooling unverified
Model Family
NT 250
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
3000
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Heat-transfer surface fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Seal, gasket, braze or tube leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate or tube corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked flow passages caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame, cover or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or covers, port connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with installed materials and deposits. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or cover seals, selected spare plates or approved tube-repair materials as applicable, port seals and manufacturer-recommended corrosion-protection parts. Brazed units are normally replaced as an assembly after an internal structural leak.
Use Cases: It is used for cooling and heating duties on merchant ships, passenger vessels, offshore units or other vessel types where this equipment category is fitted.
Datasheet
GEA NT 250 3000kW Jacket water cooling unverified
Model Family
NT 250
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
3000
Application
Jacket water cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet
GEA NT 350 Series unverified
Model Family
NT 350
Heat Exchanger Type
plate_heat_exchanger
Common Failures & Inspection Points
  • Plate fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Gasket deterioration caused by age, temperature, chemicals or incorrect compression, resulting in external leakage or cross-leakage paths
  • Plate corrosion or pinholing caused by incompatible fluid chemistry, resulting in contamination between circuits
  • Blocked channels caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame or tightening problems caused by incorrect assembly or piping stress, resulting in leakage and uneven gasket loading
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect the frame, tightening arrangement, port connections and visible gasket edges for leakage or distortion. Clean plates using methods compatible with plate and gasket materials and inspect individual plates for corrosion, deformation or cracking when opened. Confirm plate order and orientation during reassembly. Support connected piping independently so nozzle loads are not transferred into the frame. Refer to the manufacturer documentation for the exact tightening dimension, gasket material, cleaning chemistry and pressure-test criteria.
Spare Parts: Keep a set of model-correct plate gaskets, selected spare plates, port gaskets and any special frame sealing components recommended by the manufacturer. For critical coolers, enough plates and gaskets to recover from localized damage can reduce downtime. Verify materials and plate pattern against the exact serial number.
Use Cases: Central cooling, lubricating-oil cooling, freshwater heating, HVAC and other liquid-to-liquid heat-transfer duties on ships and offshore units.
Datasheet
GEA GEA NT 350 1000kW Central cooling
GEA NT 350 1000kW Central cooling unverified
Model Family
NT 350
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
1000
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Heat-transfer surface fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Seal, gasket, braze or tube leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate or tube corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked flow passages caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame, cover or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or covers, port connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with installed materials and deposits. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or cover seals, selected spare plates or approved tube-repair materials as applicable, port seals and manufacturer-recommended corrosion-protection parts. Brazed units are normally replaced as an assembly after an internal structural leak.
Use Cases: It is used for cooling and heating duties on merchant ships, passenger vessels, offshore units or other vessel types where this equipment category is fitted.
Datasheet
GEA GEA NT 350 2000kW Central cooling
GEA NT 350 2000kW Central cooling unverified
Model Family
NT 350
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
2000
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Heat-transfer surface fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Seal, gasket, braze or tube leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate or tube corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked flow passages caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame, cover or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or covers, port connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with installed materials and deposits. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or cover seals, selected spare plates or approved tube-repair materials as applicable, port seals and manufacturer-recommended corrosion-protection parts. Brazed units are normally replaced as an assembly after an internal structural leak.
Use Cases: It is used for cooling and heating duties on merchant ships, passenger vessels, offshore units or other vessel types where this equipment category is fitted.
Datasheet
GEA NT 350 3000kW Central cooling unverified
Model Family
NT 350
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
3000
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Heat-transfer surface fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Seal, gasket, braze or tube leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate or tube corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked flow passages caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame, cover or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or covers, port connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with installed materials and deposits. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or cover seals, selected spare plates or approved tube-repair materials as applicable, port seals and manufacturer-recommended corrosion-protection parts. Brazed units are normally replaced as an assembly after an internal structural leak.
Use Cases: It is used for cooling and heating duties on merchant ships, passenger vessels, offshore units or other vessel types where this equipment category is fitted.
Datasheet
GEA NT 350 5000kW Central cooling unverified
Model Family
NT 350
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
5000
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Heat-transfer surface fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Seal, gasket, braze or tube leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate or tube corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked flow passages caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame, cover or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or covers, port connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with installed materials and deposits. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or cover seals, selected spare plates or approved tube-repair materials as applicable, port seals and manufacturer-recommended corrosion-protection parts. Brazed units are normally replaced as an assembly after an internal structural leak.
Use Cases: It is used for cooling and heating duties on merchant ships, passenger vessels, offshore units or other vessel types where this equipment category is fitted.
Datasheet
GEA FA 184 Series unverified
Model Family
FA 184
Heat Exchanger Type
plate_heat_exchanger
Common Failures & Inspection Points
  • Plate fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Gasket deterioration caused by age, temperature, chemicals or incorrect compression, resulting in external leakage or cross-leakage paths
  • Plate corrosion or pinholing caused by incompatible fluid chemistry, resulting in contamination between circuits
  • Blocked channels caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame or tightening problems caused by incorrect assembly or piping stress, resulting in leakage and uneven gasket loading
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect the frame, tightening arrangement, port connections and visible gasket edges for leakage or distortion. Clean plates using methods compatible with plate and gasket materials and inspect individual plates for corrosion, deformation or cracking when opened. Confirm plate order and orientation during reassembly. Support connected piping independently so nozzle loads are not transferred into the frame. Refer to the manufacturer documentation for the exact tightening dimension, gasket material, cleaning chemistry and pressure-test criteria.
Spare Parts: Keep a set of model-correct plate gaskets, selected spare plates, port gaskets and any special frame sealing components recommended by the manufacturer. For critical coolers, enough plates and gaskets to recover from localized damage can reduce downtime. Verify materials and plate pattern against the exact serial number.
Use Cases: Central cooling, lubricating-oil cooling, freshwater heating, HVAC and other liquid-to-liquid heat-transfer duties on ships and offshore units.
Datasheet
GEA FA 184 100kW LO cooling unverified
Model Family
FA 184
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
100
Application
LO cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Fouling or scaling increases differential pressure and reduces heat-transfer performance
  • Gasket, braze, seal or tube-joint deterioration causes external leakage
  • Plate or tube corrosion, erosion or cracking causes internal cross-contamination between fluid circuits
  • Blocked strainers or restricted valves reduce flow and produce abnormal inlet-to-outlet temperatures
  • Incorrect reassembly, venting or flow distribution after service causes leakage or poor thermal performance
Service: Trend inlet and outlet temperatures and differential pressure and inspect for leakage. Open or clean the exchanger only by the approved method and examine plates, tubes, gaskets or end covers for deposits, corrosion and deformation. Investigate cross-contamination promptly. Refer to the manufacturer documentation for the exact figure for tightening, test pressure and wear limits.
Spare Parts: Carry the correct gaskets or seals, representative plates or tube-repair provisions where approved, port seals, strainers and compatible cleaning materials.
Use Cases: Central cooling, lubricating-oil cooling, fuel heating, HVAC, condensing and process duties.
Datasheet
GEA FA 184 100kW FW cooling unverified
Model Family
FA 184
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
100
Application
FW cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Fouling or scaling increases differential pressure and reduces heat-transfer performance
  • Gasket, braze, seal or tube-joint deterioration causes external leakage
  • Plate or tube corrosion, erosion or cracking causes internal cross-contamination between fluid circuits
  • Blocked strainers or restricted valves reduce flow and produce abnormal inlet-to-outlet temperatures
  • Incorrect reassembly, venting or flow distribution after service causes leakage or poor thermal performance
Service: Trend inlet and outlet temperatures and differential pressure and inspect for leakage. Open or clean the exchanger only by the approved method and examine plates, tubes, gaskets or end covers for deposits, corrosion and deformation. Investigate cross-contamination promptly. Refer to the manufacturer documentation for the exact figure for tightening, test pressure and wear limits.
Spare Parts: Carry the correct gaskets or seals, representative plates or tube-repair provisions where approved, port seals, strainers and compatible cleaning materials.
Use Cases: Central cooling, lubricating-oil cooling, fuel heating, HVAC, condensing and process duties.
Datasheet
GEA FA 184 200kW LO cooling unverified
Model Family
FA 184
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
200
Application
LO cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Fouling or scaling increases differential pressure and reduces heat-transfer performance
  • Gasket, braze, seal or tube-joint deterioration causes external leakage
  • Plate or tube corrosion, erosion or cracking causes internal cross-contamination between fluid circuits
  • Blocked strainers or restricted valves reduce flow and produce abnormal inlet-to-outlet temperatures
  • Incorrect reassembly, venting or flow distribution after service causes leakage or poor thermal performance
Service: Trend inlet and outlet temperatures and differential pressure and inspect for leakage. Open or clean the exchanger only by the approved method and examine plates, tubes, gaskets or end covers for deposits, corrosion and deformation. Investigate cross-contamination promptly. Refer to the manufacturer documentation for the exact figure for tightening, test pressure and wear limits.
Spare Parts: Carry the correct gaskets or seals, representative plates or tube-repair provisions where approved, port seals, strainers and compatible cleaning materials.
Use Cases: Central cooling, lubricating-oil cooling, fuel heating, HVAC, condensing and process duties.
Datasheet
GEA FA 184 200kW FW cooling unverified
Model Family
FA 184
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
200
Application
FW cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Fouling or scaling increases differential pressure and reduces heat-transfer performance
  • Gasket, braze, seal or tube-joint deterioration causes external leakage
  • Plate or tube corrosion, erosion or cracking causes internal cross-contamination between fluid circuits
  • Blocked strainers or restricted valves reduce flow and produce abnormal inlet-to-outlet temperatures
  • Incorrect reassembly, venting or flow distribution after service causes leakage or poor thermal performance
Service: Trend inlet and outlet temperatures and differential pressure and inspect for leakage. Open or clean the exchanger only by the approved method and examine plates, tubes, gaskets or end covers for deposits, corrosion and deformation. Investigate cross-contamination promptly. Refer to the manufacturer documentation for the exact figure for tightening, test pressure and wear limits.
Spare Parts: Carry the correct gaskets or seals, representative plates or tube-repair provisions where approved, port seals, strainers and compatible cleaning materials.
Use Cases: Central cooling, lubricating-oil cooling, fuel heating, HVAC, condensing and process duties.
Datasheet
GEA FA 184 500kW LO cooling unverified
Model Family
FA 184
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
500
Application
LO cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Fouling or scaling increases differential pressure and reduces heat-transfer performance
  • Gasket, braze, seal or tube-joint deterioration causes external leakage
  • Plate or tube corrosion, erosion or cracking causes internal cross-contamination between fluid circuits
  • Blocked strainers or restricted valves reduce flow and produce abnormal inlet-to-outlet temperatures
  • Incorrect reassembly, venting or flow distribution after service causes leakage or poor thermal performance
Service: Trend inlet and outlet temperatures and differential pressure and inspect for leakage. Open or clean the exchanger only by the approved method and examine plates, tubes, gaskets or end covers for deposits, corrosion and deformation. Investigate cross-contamination promptly. Refer to the manufacturer documentation for the exact figure for tightening, test pressure and wear limits.
Spare Parts: Carry the correct gaskets or seals, representative plates or tube-repair provisions where approved, port seals, strainers and compatible cleaning materials.
Use Cases: Central cooling, lubricating-oil cooling, fuel heating, HVAC, condensing and process duties.
Datasheet
GEA FA 184 500kW FW cooling unverified
Model Family
FA 184
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
500
Application
FW cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Fouling or scaling increases differential pressure and reduces heat-transfer performance
  • Gasket, braze, seal or tube-joint deterioration causes external leakage
  • Plate or tube corrosion, erosion or cracking causes internal cross-contamination between fluid circuits
  • Blocked strainers or restricted valves reduce flow and produce abnormal inlet-to-outlet temperatures
  • Incorrect reassembly, venting or flow distribution after service causes leakage or poor thermal performance
Service: Trend inlet and outlet temperatures and differential pressure and inspect for leakage. Open or clean the exchanger only by the approved method and examine plates, tubes, gaskets or end covers for deposits, corrosion and deformation. Investigate cross-contamination promptly. Refer to the manufacturer documentation for the exact figure for tightening, test pressure and wear limits.
Spare Parts: Carry the correct gaskets or seals, representative plates or tube-repair provisions where approved, port seals, strainers and compatible cleaning materials.
Use Cases: Central cooling, lubricating-oil cooling, fuel heating, HVAC, condensing and process duties.
Datasheet
GEA GEA FP 62 Series
GEA FP 62 Series unverified
Model Family
FP 62
Heat Exchanger Type
plate_heat_exchanger
Common Failures & Inspection Points
  • Plate fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Gasket deterioration caused by age, temperature, chemicals or incorrect compression, resulting in external leakage or cross-leakage paths
  • Plate corrosion or pinholing caused by incompatible fluid chemistry, resulting in contamination between circuits
  • Blocked channels caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame or tightening problems caused by incorrect assembly or piping stress, resulting in leakage and uneven gasket loading
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect the frame, tightening arrangement, port connections and visible gasket edges for leakage or distortion. Clean plates using methods compatible with plate and gasket materials and inspect individual plates for corrosion, deformation or cracking when opened. Confirm plate order and orientation during reassembly. Support connected piping independently so nozzle loads are not transferred into the frame. Refer to the manufacturer documentation for the exact tightening dimension, gasket material, cleaning chemistry and pressure-test criteria.
Spare Parts: Keep a set of model-correct plate gaskets, selected spare plates, port gaskets and any special frame sealing components recommended by the manufacturer. For critical coolers, enough plates and gaskets to recover from localized damage can reduce downtime. Verify materials and plate pattern against the exact serial number.
Use Cases: Central cooling, lubricating-oil cooling, freshwater heating, HVAC and other liquid-to-liquid heat-transfer duties on ships and offshore units.
Datasheet
GEA FP 62 50kW LO cooling unverified
Model Family
FP 62
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
50
Application
LO cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Plate/tube fouling from scale, sludge or marine growth, typically indicated by reduced temperature approach, high pressure drop or insufficient cooling/heating
  • Gasket or braze leakage from ageing, chemical attack or thermal stress, typically indicated by external leakage or cross-contamination
  • Corrosion/erosion of heat-transfer surfaces, typically indicated by fluid contamination, pinhole leakage or loss of performance
  • Flow blockage or air locking, typically indicated by unstable temperatures or reduced flow
  • Incorrect tightening or mechanical distortion after maintenance, typically indicated by gasket leakage or uneven plate compression
Service: Inspect for leakage, fouling, corrosion and abnormal pressure drop; clean heat-transfer surfaces using approved methods, inspect gaskets and verify connected strainers and flow conditions; exact tightening dimensions and test pressures come from manufacturer documentation.
Spare Parts: Keep approved gasket sets for plate units, sealing materials, vent/drain fittings and replacement plates or service kits according to criticality.
Use Cases: Used throughout shipboard cooling, heating, oil treatment, HVAC and freshwater systems. This entry applies specifically to the Plate Heat Exchanger variant identified as GEA GEA FP 62 50kW LO cooling.
Datasheet
GEA FP 62 100kW LO cooling unverified
Model Family
FP 62
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
100
Application
LO cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Plate/tube fouling from scale, sludge or marine growth, typically indicated by reduced temperature approach, high pressure drop or insufficient cooling/heating
  • Gasket or braze leakage from ageing, chemical attack or thermal stress, typically indicated by external leakage or cross-contamination
  • Corrosion/erosion of heat-transfer surfaces, typically indicated by fluid contamination, pinhole leakage or loss of performance
  • Flow blockage or air locking, typically indicated by unstable temperatures or reduced flow
  • Incorrect tightening or mechanical distortion after maintenance, typically indicated by gasket leakage or uneven plate compression
Service: Inspect for leakage, fouling, corrosion and abnormal pressure drop; clean heat-transfer surfaces using approved methods, inspect gaskets and verify connected strainers and flow conditions; exact tightening dimensions and test pressures come from manufacturer documentation.
Spare Parts: Keep approved gasket sets for plate units, sealing materials, vent/drain fittings and replacement plates or service kits according to criticality.
Use Cases: Used throughout shipboard cooling, heating, oil treatment, HVAC and freshwater systems. This entry applies specifically to the Plate Heat Exchanger variant identified as GEA GEA FP 62 100kW LO cooling.
Datasheet
GEA FP 62 200kW LO cooling unverified
Model Family
FP 62
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
200
Application
LO cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Plate/tube fouling from scale, sludge or marine growth, typically indicated by reduced temperature approach, high pressure drop or insufficient cooling/heating
  • Gasket or braze leakage from ageing, chemical attack or thermal stress, typically indicated by external leakage or cross-contamination
  • Corrosion/erosion of heat-transfer surfaces, typically indicated by fluid contamination, pinhole leakage or loss of performance
  • Flow blockage or air locking, typically indicated by unstable temperatures or reduced flow
  • Incorrect tightening or mechanical distortion after maintenance, typically indicated by gasket leakage or uneven plate compression
Service: Inspect for leakage, fouling, corrosion and abnormal pressure drop; clean heat-transfer surfaces using approved methods, inspect gaskets and verify connected strainers and flow conditions; exact tightening dimensions and test pressures come from manufacturer documentation.
Spare Parts: Keep approved gasket sets for plate units, sealing materials, vent/drain fittings and replacement plates or service kits according to criticality.
Use Cases: Used throughout shipboard cooling, heating, oil treatment, HVAC and freshwater systems. This entry applies specifically to the Plate Heat Exchanger variant identified as GEA GEA FP 62 200kW LO cooling.
Datasheet
GEA GEA FP 100 Series
GEA FP 100 Series unverified
Model Family
FP 100
Heat Exchanger Type
plate_heat_exchanger
Common Failures & Inspection Points
  • Plate fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Gasket deterioration caused by age, temperature, chemicals or incorrect compression, resulting in external leakage or cross-leakage paths
  • Plate corrosion or pinholing caused by incompatible fluid chemistry, resulting in contamination between circuits
  • Blocked channels caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame or tightening problems caused by incorrect assembly or piping stress, resulting in leakage and uneven gasket loading
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect the frame, tightening arrangement, port connections and visible gasket edges for leakage or distortion. Clean plates using methods compatible with plate and gasket materials and inspect individual plates for corrosion, deformation or cracking when opened. Confirm plate order and orientation during reassembly. Support connected piping independently so nozzle loads are not transferred into the frame. Refer to the manufacturer documentation for the exact tightening dimension, gasket material, cleaning chemistry and pressure-test criteria.
Spare Parts: Keep a set of model-correct plate gaskets, selected spare plates, port gaskets and any special frame sealing components recommended by the manufacturer. For critical coolers, enough plates and gaskets to recover from localized damage can reduce downtime. Verify materials and plate pattern against the exact serial number.
Use Cases: Central cooling, lubricating-oil cooling, freshwater heating, HVAC and other liquid-to-liquid heat-transfer duties on ships and offshore units.
Datasheet
GEA FP 100 100kW FW cooling unverified
Model Family
FP 100
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
100
Application
FW cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Fouling or scaling increases differential pressure and reduces heat-transfer performance
  • Gasket, braze, seal or tube-joint deterioration causes external leakage
  • Plate or tube corrosion, erosion or cracking causes internal cross-contamination between fluid circuits
  • Blocked strainers or restricted valves reduce flow and produce abnormal inlet-to-outlet temperatures
  • Incorrect reassembly, venting or flow distribution after service causes leakage or poor thermal performance
Service: Trend inlet and outlet temperatures and differential pressure and inspect for leakage. Open or clean the exchanger only by the approved method and examine plates, tubes, gaskets or end covers for deposits, corrosion and deformation. Investigate cross-contamination promptly. Refer to the manufacturer documentation for the exact figure for tightening, test pressure and wear limits.
Spare Parts: Carry the correct gaskets or seals, representative plates or tube-repair provisions where approved, port seals, strainers and compatible cleaning materials.
Use Cases: Central cooling, lubricating-oil cooling, fuel heating, HVAC, condensing and process duties.
Datasheet
GEA FP 100 100kW Central cooling unverified
Model Family
FP 100
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
100
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Heat-transfer surface fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Seal, gasket, braze or tube leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate or tube corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked flow passages caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame, cover or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or covers, port connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with installed materials and deposits. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or cover seals, selected spare plates or approved tube-repair materials as applicable, port seals and manufacturer-recommended corrosion-protection parts. Brazed units are normally replaced as an assembly after an internal structural leak.
Use Cases: It is used for cooling and heating duties on merchant ships, passenger vessels, offshore units or other vessel types where this equipment category is fitted.
Datasheet
GEA FP 100 200kW FW cooling unverified
Model Family
FP 100
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
200
Application
FW cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Fouling or scaling increases differential pressure and reduces heat-transfer performance
  • Gasket, braze, seal or tube-joint deterioration causes external leakage
  • Plate or tube corrosion, erosion or cracking causes internal cross-contamination between fluid circuits
  • Blocked strainers or restricted valves reduce flow and produce abnormal inlet-to-outlet temperatures
  • Incorrect reassembly, venting or flow distribution after service causes leakage or poor thermal performance
Service: Trend inlet and outlet temperatures and differential pressure and inspect for leakage. Open or clean the exchanger only by the approved method and examine plates, tubes, gaskets or end covers for deposits, corrosion and deformation. Investigate cross-contamination promptly. Refer to the manufacturer documentation for the exact figure for tightening, test pressure and wear limits.
Spare Parts: Carry the correct gaskets or seals, representative plates or tube-repair provisions where approved, port seals, strainers and compatible cleaning materials.
Use Cases: Central cooling, lubricating-oil cooling, fuel heating, HVAC, condensing and process duties.
Datasheet
GEA FP 100 200kW Central cooling unverified
Model Family
FP 100
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
200
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Heat-transfer surface fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Seal, gasket, braze or tube leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate or tube corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked flow passages caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame, cover or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or covers, port connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with installed materials and deposits. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or cover seals, selected spare plates or approved tube-repair materials as applicable, port seals and manufacturer-recommended corrosion-protection parts. Brazed units are normally replaced as an assembly after an internal structural leak.
Use Cases: It is used for cooling and heating duties on merchant ships, passenger vessels, offshore units or other vessel types where this equipment category is fitted.
Datasheet
GEA GEA FP 100 500kW FW cooling
GEA FP 100 500kW FW cooling unverified
Model Family
FP 100
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
500
Application
FW cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Fouling or scaling increases differential pressure and reduces heat-transfer performance
  • Gasket, braze, seal or tube-joint deterioration causes external leakage
  • Plate or tube corrosion, erosion or cracking causes internal cross-contamination between fluid circuits
  • Blocked strainers or restricted valves reduce flow and produce abnormal inlet-to-outlet temperatures
  • Incorrect reassembly, venting or flow distribution after service causes leakage or poor thermal performance
Service: Trend inlet and outlet temperatures and differential pressure and inspect for leakage. Open or clean the exchanger only by the approved method and examine plates, tubes, gaskets or end covers for deposits, corrosion and deformation. Investigate cross-contamination promptly. Refer to the manufacturer documentation for the exact figure for tightening, test pressure and wear limits.
Spare Parts: Carry the correct gaskets or seals, representative plates or tube-repair provisions where approved, port seals, strainers and compatible cleaning materials.
Use Cases: Central cooling, lubricating-oil cooling, fuel heating, HVAC, condensing and process duties.
Datasheet
GEA GEA FP 100 500kW Central cooling
GEA FP 100 500kW Central cooling unverified
Model Family
FP 100
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
500
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Heat-transfer surface fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Seal, gasket, braze or tube leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate or tube corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked flow passages caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame, cover or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or covers, port connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with installed materials and deposits. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or cover seals, selected spare plates or approved tube-repair materials as applicable, port seals and manufacturer-recommended corrosion-protection parts. Brazed units are normally replaced as an assembly after an internal structural leak.
Use Cases: It is used for cooling and heating duties on merchant ships, passenger vessels, offshore units or other vessel types where this equipment category is fitted.
Datasheet
GEA GEA FP 100 1000kW FW cooling
GEA FP 100 1000kW FW cooling unverified
Model Family
FP 100
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
1000
Application
FW cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Fouling or scaling increases differential pressure and reduces heat-transfer performance
  • Gasket, braze, seal or tube-joint deterioration causes external leakage
  • Plate or tube corrosion, erosion or cracking causes internal cross-contamination between fluid circuits
  • Blocked strainers or restricted valves reduce flow and produce abnormal inlet-to-outlet temperatures
  • Incorrect reassembly, venting or flow distribution after service causes leakage or poor thermal performance
Service: Trend inlet and outlet temperatures and differential pressure and inspect for leakage. Open or clean the exchanger only by the approved method and examine plates, tubes, gaskets or end covers for deposits, corrosion and deformation. Investigate cross-contamination promptly. Refer to the manufacturer documentation for the exact figure for tightening, test pressure and wear limits.
Spare Parts: Carry the correct gaskets or seals, representative plates or tube-repair provisions where approved, port seals, strainers and compatible cleaning materials.
Use Cases: Central cooling, lubricating-oil cooling, fuel heating, HVAC, condensing and process duties.
Datasheet
GEA FP 100 1000kW Central cooling unverified
Model Family
FP 100
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
1000
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Heat-transfer surface fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Seal, gasket, braze or tube leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate or tube corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked flow passages caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame, cover or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or covers, port connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with installed materials and deposits. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or cover seals, selected spare plates or approved tube-repair materials as applicable, port seals and manufacturer-recommended corrosion-protection parts. Brazed units are normally replaced as an assembly after an internal structural leak.
Use Cases: It is used for cooling and heating duties on merchant ships, passenger vessels, offshore units or other vessel types where this equipment category is fitted.
Datasheet
GEA GEA LWC 100 Series
GEA LWC 100 Series unverified
Model Family
LWC 100
Heat Exchanger Type
plate_heat_exchanger
Common Failures & Inspection Points
  • Plate fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Gasket deterioration caused by age, temperature, chemicals or incorrect compression, resulting in external leakage or cross-leakage paths
  • Plate corrosion or pinholing caused by incompatible fluid chemistry, resulting in contamination between circuits
  • Blocked channels caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame or tightening problems caused by incorrect assembly or piping stress, resulting in leakage and uneven gasket loading
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect the frame, tightening arrangement, port connections and visible gasket edges for leakage or distortion. Clean plates using methods compatible with plate and gasket materials and inspect individual plates for corrosion, deformation or cracking when opened. Confirm plate order and orientation during reassembly. Support connected piping independently so nozzle loads are not transferred into the frame. Refer to the manufacturer documentation for the exact tightening dimension, gasket material, cleaning chemistry and pressure-test criteria.
Spare Parts: Keep a set of model-correct plate gaskets, selected spare plates, port gaskets and any special frame sealing components recommended by the manufacturer. For critical coolers, enough plates and gaskets to recover from localized damage can reduce downtime. Verify materials and plate pattern against the exact serial number.
Use Cases: Central cooling, lubricating-oil cooling, freshwater heating, HVAC and other liquid-to-liquid heat-transfer duties on ships and offshore units.
Datasheet
GEA GEA LWC 100 100kW FW cooling
GEA LWC 100 100kW FW cooling unverified
Model Family
LWC 100
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
100
Application
FW cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Fouling or scaling increases differential pressure and reduces heat-transfer performance
  • Gasket, braze, seal or tube-joint deterioration causes external leakage
  • Plate or tube corrosion, erosion or cracking causes internal cross-contamination between fluid circuits
  • Blocked strainers or restricted valves reduce flow and produce abnormal inlet-to-outlet temperatures
  • Incorrect reassembly, venting or flow distribution after service causes leakage or poor thermal performance
Service: Trend inlet and outlet temperatures and differential pressure and inspect for leakage. Open or clean the exchanger only by the approved method and examine plates, tubes, gaskets or end covers for deposits, corrosion and deformation. Investigate cross-contamination promptly. Refer to the manufacturer documentation for the exact figure for tightening, test pressure and wear limits.
Spare Parts: Carry the correct gaskets or seals, representative plates or tube-repair provisions where approved, port seals, strainers and compatible cleaning materials.
Use Cases: Central cooling, lubricating-oil cooling, fuel heating, HVAC, condensing and process duties.
Datasheet
GEA GEA LWC 100 100kW Central cooling
GEA LWC 100 100kW Central cooling unverified
Model Family
LWC 100
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
100
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Heat-transfer surface fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Seal, gasket, braze or tube leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate or tube corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked flow passages caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame, cover or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or covers, port connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with installed materials and deposits. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or cover seals, selected spare plates or approved tube-repair materials as applicable, port seals and manufacturer-recommended corrosion-protection parts. Brazed units are normally replaced as an assembly after an internal structural leak.
Use Cases: It is used for cooling and heating duties on merchant ships, passenger vessels, offshore units or other vessel types where this equipment category is fitted.
Datasheet
GEA GEA LWC 100 200kW FW cooling
GEA LWC 100 200kW FW cooling unverified
Model Family
LWC 100
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
200
Application
FW cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Fouling or scaling increases differential pressure and reduces heat-transfer performance
  • Gasket, braze, seal or tube-joint deterioration causes external leakage
  • Plate or tube corrosion, erosion or cracking causes internal cross-contamination between fluid circuits
  • Blocked strainers or restricted valves reduce flow and produce abnormal inlet-to-outlet temperatures
  • Incorrect reassembly, venting or flow distribution after service causes leakage or poor thermal performance
Service: Trend inlet and outlet temperatures and differential pressure and inspect for leakage. Open or clean the exchanger only by the approved method and examine plates, tubes, gaskets or end covers for deposits, corrosion and deformation. Investigate cross-contamination promptly. Refer to the manufacturer documentation for the exact figure for tightening, test pressure and wear limits.
Spare Parts: Carry the correct gaskets or seals, representative plates or tube-repair provisions where approved, port seals, strainers and compatible cleaning materials.
Use Cases: Central cooling, lubricating-oil cooling, fuel heating, HVAC, condensing and process duties.
Datasheet
GEA GEA LWC 100 200kW Central cooling
GEA LWC 100 200kW Central cooling unverified
Model Family
LWC 100
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
200
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Heat-transfer surface fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Seal, gasket, braze or tube leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate or tube corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked flow passages caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame, cover or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or covers, port connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with installed materials and deposits. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or cover seals, selected spare plates or approved tube-repair materials as applicable, port seals and manufacturer-recommended corrosion-protection parts. Brazed units are normally replaced as an assembly after an internal structural leak.
Use Cases: It is used for cooling and heating duties on merchant ships, passenger vessels, offshore units or other vessel types where this equipment category is fitted.
Datasheet
GEA GEA LWC 100 500kW FW cooling
GEA LWC 100 500kW FW cooling unverified
Model Family
LWC 100
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
500
Application
FW cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Fouling or scaling increases differential pressure and reduces heat-transfer performance
  • Gasket, braze, seal or tube-joint deterioration causes external leakage
  • Plate or tube corrosion, erosion or cracking causes internal cross-contamination between fluid circuits
  • Blocked strainers or restricted valves reduce flow and produce abnormal inlet-to-outlet temperatures
  • Incorrect reassembly, venting or flow distribution after service causes leakage or poor thermal performance
Service: Trend inlet and outlet temperatures and differential pressure and inspect for leakage. Open or clean the exchanger only by the approved method and examine plates, tubes, gaskets or end covers for deposits, corrosion and deformation. Investigate cross-contamination promptly. Refer to the manufacturer documentation for the exact figure for tightening, test pressure and wear limits.
Spare Parts: Carry the correct gaskets or seals, representative plates or tube-repair provisions where approved, port seals, strainers and compatible cleaning materials.
Use Cases: Central cooling, lubricating-oil cooling, fuel heating, HVAC, condensing and process duties.
Datasheet
GEA GEA LWC 100 500kW Central cooling
GEA LWC 100 500kW Central cooling unverified
Model Family
LWC 100
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
500
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Heat-transfer surface fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Seal, gasket, braze or tube leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate or tube corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked flow passages caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame, cover or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or covers, port connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with installed materials and deposits. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or cover seals, selected spare plates or approved tube-repair materials as applicable, port seals and manufacturer-recommended corrosion-protection parts. Brazed units are normally replaced as an assembly after an internal structural leak.
Use Cases: It is used for cooling and heating duties on merchant ships, passenger vessels, offshore units or other vessel types where this equipment category is fitted.
Datasheet

Sondex

58
Sondex S4 unverified
0.5 m² surface
Exchanger type
plate
Surface area m2
0.5
Max. Pressure (bar)
25
Application
hydraulic/sample cooler
Common Failures & Inspection Points
  • Plate/tube fouling from scale, sludge or marine growth, typically indicated by reduced temperature approach, high pressure drop or insufficient cooling/heating
  • Gasket or braze leakage from ageing, chemical attack or thermal stress, typically indicated by external leakage or cross-contamination
  • Corrosion/erosion of heat-transfer surfaces, typically indicated by fluid contamination, pinhole leakage or loss of performance
  • Flow blockage or air locking, typically indicated by unstable temperatures or reduced flow
  • Incorrect tightening or mechanical distortion after maintenance, typically indicated by gasket leakage or uneven plate compression
Service: Inspect for leakage, fouling, corrosion and abnormal pressure drop; clean heat-transfer surfaces using approved methods, inspect gaskets and verify connected strainers and flow conditions; exact tightening dimensions and test pressures come from manufacturer documentation.
Spare Parts: Keep approved gasket sets for plate units, sealing materials, vent/drain fittings and replacement plates or service kits according to criticality.
Use Cases: Used throughout shipboard cooling, heating, oil treatment, HVAC and freshwater systems. This entry applies specifically to the Plate Heat Exchanger variant identified as Sondex Sondex S4.
Datasheet
Sondex S8 unverified
2.0 m² surface
Exchanger type
plate
Surface area m2
2.0
Max. Pressure (bar)
25
Application
LO cooler
Common Failures & Inspection Points
  • Plate fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Gasket deterioration caused by age, temperature, chemicals or incorrect compression, resulting in external leakage or cross-leakage paths
  • Plate corrosion or pinholing caused by incompatible fluid chemistry, resulting in contamination between circuits
  • Blocked channels caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame or tightening problems caused by incorrect assembly or piping stress, resulting in leakage and uneven gasket loading
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect the frame, tightening arrangement, port connections and visible gasket edges for leakage or distortion. Clean plates using methods compatible with plate and gasket materials and inspect individual plates for corrosion, deformation or cracking when opened. Confirm plate order and orientation during reassembly. Support connected piping independently so nozzle loads are not transferred into the frame. Refer to the manufacturer documentation for the exact tightening dimension, gasket material, cleaning chemistry and pressure-test criteria.
Spare Parts: Keep a set of model-correct plate gaskets, selected spare plates, port gaskets and any special frame sealing components recommended by the manufacturer. For critical coolers, enough plates and gaskets to recover from localized damage can reduce downtime. Verify materials and plate pattern against the exact serial number.
Use Cases: Central cooling, lubricating-oil cooling, freshwater heating and other liquid-to-liquid heat-transfer duties on ships and offshore units.
Datasheet
Sondex S14 unverified
5.0 m² surface
Exchanger type
plate
Surface area m2
5.0
Max. Pressure (bar)
25
Application
LO/FW cooler
Common Failures & Inspection Points
  • Fouling on the heat-transfer surfaces from scale, sludge, biological growth, or oil contamination reduces thermal performance and appears as rising outlet temperature or reduced temperature approach
  • Gasket, seal, tube, or plate leakage caused by ageing, corrosion, or mechanical damage can allow external leakage or cross-contamination between circuits
  • Restricted flow from debris or deposits raises differential pressure and can reduce downstream flow
  • Corrosion or erosion of wetted surfaces caused by unsuitable water chemistry, velocity, or material attack can produce pinhole leakage and contamination
  • Loose covers, plate packs, or connections after maintenance can cause leakage, unstable temperatures, or loss of system pressure
Service: Inspect for external leakage, corrosion, abnormal temperature difference, flow restriction, and evidence of cross-contamination. Trend inlet and outlet temperatures and differential pressure where instruments are fitted, clean the heat-transfer surfaces using an approved method, and verify tightening or assembly against the manufacturer documentation.
Spare Parts: Keep the applicable gasket or seal set, connection seals, and any model-specific plate, tube, or fastening items recommended by the manufacturer. For the exact spare quantities and part numbers, refer to the manufacturer documentation.
Use Cases: Used on merchant ships, offshore vessels, passenger ships, fishing vessels, and workboats wherever machinery or process fluids require controlled heating or cooling.
Datasheet
Sondex S19 unverified
10.0 m² surface
Exchanger type
plate
Surface area m2
10.0
Max. Pressure (bar)
25
Application
central cooler
Common Failures & Inspection Points
  • Fouling or deposit build-up caused by poor combustion, contaminated fluid or exhaust soot can reduce heat transfer or flow and produce higher temperatures or loss of capacity
  • Leakage from tubes, gaskets, seals or casing caused by corrosion, thermal cycling or erosion can appear as fluid loss, pressure decay or cross-contamination
  • Burner, ignition or fuel-control faults where combustion is used can cause flame failure, unstable firing, smoke or shutdown alarms
  • Fan, pump or actuator faults caused by mechanical wear or electrical problems can reduce circulation, airflow or treatment effectiveness
  • Sensor, control or safety-interlock faults caused by drift, wiring defects or contamination can trigger nuisance trips or allow unstable operation
Service: Inspect for leakage, corrosion, deposits, refractory or insulation damage where fitted, abnormal temperatures and secure supports. Check burners, pumps, fans, valves, soot-cleaning or treatment components and safety devices relevant to the installed equipment. Refer to manufacturer documentation for exact operating limits, cleaning criteria and pressure or combustion test values.
Spare Parts: Carry maker-recommended gaskets and seals, burner or ignition service parts where applicable, filters, actuator or valve repair items, sensors, fuses and selected pump or fan consumables appropriate to the unit.
Use Cases: Steam production, heating, waste incineration, exhaust heat recovery, emissions control and related engine-room process duties on marine vessels.
Datasheet
Sondex S21 unverified
15.0 m² surface
Exchanger type
plate
Surface area m2
15.0
Max. Pressure (bar)
25
Application
central cooler
Common Failures & Inspection Points
  • Fouling or deposit build-up caused by poor combustion, contaminated fluid or exhaust soot can reduce heat transfer or flow and produce higher temperatures or loss of capacity
  • Leakage from tubes, gaskets, seals or casing caused by corrosion, thermal cycling or erosion can appear as fluid loss, pressure decay or cross-contamination
  • Burner, ignition or fuel-control faults where combustion is used can cause flame failure, unstable firing, smoke or shutdown alarms
  • Fan, pump or actuator faults caused by mechanical wear or electrical problems can reduce circulation, airflow or treatment effectiveness
  • Sensor, control or safety-interlock faults caused by drift, wiring defects or contamination can trigger nuisance trips or allow unstable operation
Service: Inspect for leakage, corrosion, deposits, refractory or insulation damage where fitted, abnormal temperatures and secure supports. Check burners, pumps, fans, valves, soot-cleaning or treatment components and safety devices relevant to the installed equipment. Refer to manufacturer documentation for exact operating limits, cleaning criteria and pressure or combustion test values.
Spare Parts: Carry maker-recommended gaskets and seals, burner or ignition service parts where applicable, filters, actuator or valve repair items, sensors, fuses and selected pump or fan consumables appropriate to the unit.
Use Cases: Steam production, heating, waste incineration, exhaust heat recovery, emissions control and related engine-room process duties on marine vessels.
Datasheet
Sondex S37 unverified
25.0 m² surface
Exchanger type
plate
Surface area m2
25.0
Max. Pressure (bar)
25
Application
central cooler
Common Failures & Inspection Points
  • Fouling or deposit build-up caused by poor combustion, contaminated fluid or exhaust soot can reduce heat transfer or flow and produce higher temperatures or loss of capacity
  • Leakage from tubes, gaskets, seals or casing caused by corrosion, thermal cycling or erosion can appear as fluid loss, pressure decay or cross-contamination
  • Burner, ignition or fuel-control faults where combustion is used can cause flame failure, unstable firing, smoke or shutdown alarms
  • Fan, pump or actuator faults caused by mechanical wear or electrical problems can reduce circulation, airflow or treatment effectiveness
  • Sensor, control or safety-interlock faults caused by drift, wiring defects or contamination can trigger nuisance trips or allow unstable operation
Service: Inspect for leakage, corrosion, deposits, refractory or insulation damage where fitted, abnormal temperatures and secure supports. Check burners, pumps, fans, valves, soot-cleaning or treatment components and safety devices relevant to the installed equipment. Refer to manufacturer documentation for exact operating limits, cleaning criteria and pressure or combustion test values.
Spare Parts: Carry maker-recommended gaskets and seals, burner or ignition service parts where applicable, filters, actuator or valve repair items, sensors, fuses and selected pump or fan consumables appropriate to the unit.
Use Cases: Steam production, heating, waste incineration, exhaust heat recovery, emissions control and related engine-room process duties on marine vessels.
Datasheet
Sondex S62 unverified
50.0 m² surface
Exchanger type
plate
Surface area m2
50.0
Max. Pressure (bar)
25
Application
main central cooler
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces from scale, sludge, biological growth, or oil contamination reduces thermal performance and appears as rising outlet temperature
  • Gasket, seal, tube, or plate leakage from ageing, corrosion, or mechanical damage causes external leakage or cross-contamination
  • Restricted flow from debris or deposits raises pressure drop and reduces downstream flow
  • Corrosion or erosion of wetted surfaces from unsuitable water chemistry, velocity, or material attack produces pinhole leakage
  • Loose covers, plate packs, or connections after maintenance cause leakage, unstable temperatures, or loss of system pressure
Service: Inspect external leakage, corrosion, temperature difference, flow restriction, and evidence of cross-contamination. Trend inlet and outlet temperatures and differential pressure where instruments are fitted, clean heat-transfer surfaces using an approved method, and verify assembly against manufacturer documentation.
Spare Parts: Keep the applicable gasket or seal set, connection seals, and any model-specific plate, tube, or fastening items recommended by the manufacturer.
Use Cases: Used on merchant ships, offshore vessels, passenger ships, fishing vessels, and workboats wherever machinery or process fluids require controlled heating or cooling.
Datasheet
Sondex S100 unverified
100.0 m² surface
Exchanger type
plate
Surface area m2
100.0
Max. Pressure (bar)
25
Application
main central cooler
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces from scale, sludge, biological growth, or oil contamination reduces thermal performance and appears as rising outlet temperature
  • Gasket, seal, tube, or plate leakage from ageing, corrosion, or mechanical damage causes external leakage or cross-contamination
  • Restricted flow from debris or deposits raises pressure drop and reduces downstream flow
  • Corrosion or erosion of wetted surfaces from unsuitable water chemistry, velocity, or material attack produces pinhole leakage
  • Loose covers, plate packs, or connections after maintenance cause leakage, unstable temperatures, or loss of system pressure
Service: Inspect external leakage, corrosion, temperature difference, flow restriction, and evidence of cross-contamination. Trend inlet and outlet temperatures and differential pressure where instruments are fitted, clean heat-transfer surfaces using an approved method, and verify assembly against manufacturer documentation.
Spare Parts: Keep the applicable gasket or seal set, connection seals, and any model-specific plate, tube, or fastening items recommended by the manufacturer.
Use Cases: Used on merchant ships, offshore vessels, passenger ships, fishing vessels, and workboats wherever machinery or process fluids require controlled heating or cooling.
Datasheet
Sondex S121 unverified
150.0 m² surface
Exchanger type
plate
Surface area m2
150.0
Max. Pressure (bar)
25
Application
large central cooler
Common Failures & Inspection Points
  • Plate/tube fouling from scale, sludge or marine growth, typically indicated by reduced temperature approach, high pressure drop or insufficient cooling/heating
  • Gasket or braze leakage from ageing, chemical attack or thermal stress, typically indicated by external leakage or cross-contamination
  • Corrosion/erosion of heat-transfer surfaces, typically indicated by fluid contamination, pinhole leakage or loss of performance
  • Flow blockage or air locking, typically indicated by unstable temperatures or reduced flow
  • Incorrect tightening or mechanical distortion after maintenance, typically indicated by gasket leakage or uneven plate compression
Service: Inspect for leakage, fouling, corrosion and abnormal pressure drop; clean heat-transfer surfaces using approved methods, inspect gaskets and verify connected strainers and flow conditions; exact tightening dimensions and test pressures come from manufacturer documentation.
Spare Parts: Keep approved gasket sets for plate units, sealing materials, vent/drain fittings and replacement plates or service kits according to criticality.
Use Cases: Used throughout shipboard cooling, heating, oil treatment, HVAC and freshwater systems. This entry applies specifically to the Plate Heat Exchanger variant identified as Sondex Sondex S121.
Datasheet
Sondex S-4 Series unverified
Model Family
S-4
Heat Exchanger Type
plate_heat_exchanger
Common Failures & Inspection Points
  • Plate fouling or scaling raises differential pressure and reduces heat-transfer performance
  • Gasket ageing, displacement or chemical attack causes external leakage at the plate pack
  • Plate corrosion, erosion or cracking causes internal cross-contamination between fluid circuits
  • Incorrect plate sequence or compression after overhaul causes immediate leakage or poor thermal performance
  • Blocked upstream strainers reduce flow and create abnormal inlet-to-outlet temperatures
Service: Trend temperatures and differential pressure, inspect the plate pack for leakage and open it when condition or maintenance planning requires. Check plates for deposits, corrosion and deformation and gaskets for hardening or displacement. Reassemble in the documented sequence. Exact tightening dimension and cleaning limits require manufacturer documentation.
Spare Parts: Carry the correct gasket type, representative spare plates, port seals, compatible cleaning materials and associated strainer elements.
Use Cases: Central cooling, jacket-water cooling, oil cooling, HVAC, heating and process duties.
Datasheet
Sondex S-4 50kW LO cooling unverified
Model Family
S-4
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
50
Application
LO cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Fouling or scaling increases differential pressure and reduces heat-transfer performance
  • Gasket, braze, seal or tube-joint deterioration causes external leakage
  • Plate or tube corrosion, erosion or cracking causes internal cross-contamination between fluid circuits
  • Blocked strainers or restricted valves reduce flow and produce abnormal inlet-to-outlet temperatures
  • Incorrect reassembly, venting or flow distribution after service causes leakage or poor thermal performance
Service: Trend inlet and outlet temperatures and differential pressure and inspect for leakage. Open or clean the exchanger only by the approved method and examine plates, tubes, gaskets or end covers for deposits, corrosion and deformation. Investigate cross-contamination promptly. Refer to the manufacturer documentation for the exact figure for tightening, test pressure and wear limits.
Spare Parts: Carry the correct gaskets or seals, representative plates or tube-repair provisions where approved, port seals, strainers and compatible cleaning materials.
Use Cases: Central cooling, lubricating-oil cooling, fuel heating, HVAC, condensing and process duties.
Datasheet
Sondex S-4 50kW FW cooling unverified
Model Family
S-4
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
50
Application
FW cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Fouling or scaling increases differential pressure and reduces heat-transfer performance
  • Gasket, braze, seal or tube-joint deterioration causes external leakage
  • Plate or tube corrosion, erosion or cracking causes internal cross-contamination between fluid circuits
  • Blocked strainers or restricted valves reduce flow and produce abnormal inlet-to-outlet temperatures
  • Incorrect reassembly, venting or flow distribution after service causes leakage or poor thermal performance
Service: Trend inlet and outlet temperatures and differential pressure and inspect for leakage. Open or clean the exchanger only by the approved method and examine plates, tubes, gaskets or end covers for deposits, corrosion and deformation. Investigate cross-contamination promptly. Refer to the manufacturer documentation for the exact figure for tightening, test pressure and wear limits.
Spare Parts: Carry the correct gaskets or seals, representative plates or tube-repair provisions where approved, port seals, strainers and compatible cleaning materials.
Use Cases: Central cooling, lubricating-oil cooling, fuel heating, HVAC, condensing and process duties.
Datasheet
Sondex S-4 100kW LO cooling unverified
Model Family
S-4
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
100
Application
LO cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Plate-channel fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Gasket, braze or connection leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked channels caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or external connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with plate and sealing materials. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or connection seals, selected spare plates for openable units, filters and manufacturer-recommended service parts. Brazed units are normally replaced as an assembly after an internal structural leak. Verify materials and dimensions against the exact serial number.
Use Cases: Central cooling, lubricating-oil cooling, freshwater heating, refrigeration and other liquid-to-liquid heat-transfer duties on ships and offshore units.
Datasheet
Sondex S-4 100kW FW cooling unverified
Model Family
S-4
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
100
Application
FW cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Plate-channel fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Gasket, braze or connection leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked channels caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or external connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with plate and sealing materials. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or connection seals, selected spare plates for openable units, filters and manufacturer-recommended service parts. Brazed units are normally replaced as an assembly after an internal structural leak. Verify materials and dimensions against the exact serial number.
Use Cases: Central cooling, lubricating-oil cooling, freshwater heating, refrigeration and other liquid-to-liquid heat-transfer duties on ships and offshore units.
Datasheet
Sondex Sondex S-4 200kW LO cooling
Sondex S-4 200kW LO cooling unverified
Model Family
S-4
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
200
Application
LO cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Plate-channel fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Gasket, braze or connection leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked channels caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or external connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with plate and sealing materials. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or connection seals, selected spare plates for openable units, filters and manufacturer-recommended service parts. Brazed units are normally replaced as an assembly after an internal structural leak. Verify materials and dimensions against the exact serial number.
Use Cases: Central cooling, lubricating-oil cooling, freshwater heating, refrigeration and other liquid-to-liquid heat-transfer duties on ships and offshore units.
Datasheet
Sondex S-4 200kW FW cooling unverified
Model Family
S-4
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
200
Application
FW cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Plate-channel fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Gasket, braze or connection leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked channels caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or external connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with plate and sealing materials. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or connection seals, selected spare plates for openable units, filters and manufacturer-recommended service parts. Brazed units are normally replaced as an assembly after an internal structural leak. Verify materials and dimensions against the exact serial number.
Use Cases: Central cooling, lubricating-oil cooling, freshwater heating, refrigeration and other liquid-to-liquid heat-transfer duties on ships and offshore units.
Datasheet
Sondex S-8 Series unverified
Model Family
S-8
Heat Exchanger Type
plate_heat_exchanger
Common Failures & Inspection Points
  • Plate fouling or scaling raises differential pressure and reduces heat-transfer performance
  • Gasket ageing, displacement or chemical attack causes external leakage at the plate pack
  • Plate corrosion, erosion or cracking causes internal cross-contamination between fluid circuits
  • Incorrect plate sequence or compression after overhaul causes immediate leakage or poor thermal performance
  • Blocked upstream strainers reduce flow and create abnormal inlet-to-outlet temperatures
Service: Trend temperatures and differential pressure, inspect the plate pack for leakage and open it when condition or maintenance planning requires. Check plates for deposits, corrosion and deformation and gaskets for hardening or displacement. Reassemble in the documented sequence. Exact tightening dimension and cleaning limits require manufacturer documentation.
Spare Parts: Carry the correct gasket type, representative spare plates, port seals, compatible cleaning materials and associated strainer elements.
Use Cases: Central cooling, jacket-water cooling, oil cooling, HVAC, heating and process duties.
Datasheet
Sondex S-8 100kW LO cooling unverified
Model Family
S-8
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
100
Application
LO cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Plate-channel fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Gasket, braze or connection leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked channels caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or external connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with plate and sealing materials. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or connection seals, selected spare plates for openable units, filters and manufacturer-recommended service parts. Brazed units are normally replaced as an assembly after an internal structural leak. Verify materials and dimensions against the exact serial number.
Use Cases: Central cooling, lubricating-oil cooling, freshwater heating, refrigeration and other liquid-to-liquid heat-transfer duties on ships and offshore units.
Datasheet
Sondex S-8 100kW FW cooling unverified
Model Family
S-8
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
100
Application
FW cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Plate-channel fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Gasket, braze or connection leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked channels caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or external connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with plate and sealing materials. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or connection seals, selected spare plates for openable units, filters and manufacturer-recommended service parts. Brazed units are normally replaced as an assembly after an internal structural leak. Verify materials and dimensions against the exact serial number.
Use Cases: Central cooling, lubricating-oil cooling, freshwater heating, refrigeration and other liquid-to-liquid heat-transfer duties on ships and offshore units.
Datasheet
Sondex S-8 200kW LO cooling unverified
Model Family
S-8
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
200
Application
LO cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Plate-channel fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Gasket, braze or connection leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked channels caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or external connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with plate and sealing materials. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or connection seals, selected spare plates for openable units, filters and manufacturer-recommended service parts. Brazed units are normally replaced as an assembly after an internal structural leak. Verify materials and dimensions against the exact serial number.
Use Cases: Central cooling, lubricating-oil cooling, freshwater heating, refrigeration and other liquid-to-liquid heat-transfer duties on ships and offshore units.
Datasheet
Sondex S-8 200kW FW cooling unverified
Model Family
S-8
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
200
Application
FW cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Plate-channel fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Gasket, braze or connection leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked channels caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or external connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with plate and sealing materials. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or connection seals, selected spare plates for openable units, filters and manufacturer-recommended service parts. Brazed units are normally replaced as an assembly after an internal structural leak. Verify materials and dimensions against the exact serial number.
Use Cases: Central cooling, lubricating-oil cooling, freshwater heating, refrigeration and other liquid-to-liquid heat-transfer duties on ships and offshore units.
Datasheet
Sondex S-8 500kW LO cooling unverified
Model Family
S-8
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
500
Application
LO cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Plate-channel fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Gasket, braze or connection leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked channels caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or external connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with plate and sealing materials. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or connection seals, selected spare plates for openable units, filters and manufacturer-recommended service parts. Brazed units are normally replaced as an assembly after an internal structural leak. Verify materials and dimensions against the exact serial number.
Use Cases: Central cooling, lubricating-oil cooling, freshwater heating, refrigeration and other liquid-to-liquid heat-transfer duties on ships and offshore units.
Datasheet
Sondex S-8 500kW FW cooling unverified
Model Family
S-8
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
500
Application
FW cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Plate-channel fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Gasket, braze or connection leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked channels caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or external connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with plate and sealing materials. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or connection seals, selected spare plates for openable units, filters and manufacturer-recommended service parts. Brazed units are normally replaced as an assembly after an internal structural leak. Verify materials and dimensions against the exact serial number.
Use Cases: Central cooling, lubricating-oil cooling, freshwater heating, refrigeration and other liquid-to-liquid heat-transfer duties on ships and offshore units.
Datasheet
Sondex S-14 Series unverified
Model Family
S-14
Heat Exchanger Type
plate_heat_exchanger
Common Failures & Inspection Points
  • Plate fouling or scale reduces heat transfer, noticed as poor outlet temperatures and increasing temperature approach
  • Gasket ageing or incorrect plate compression causes external leakage between plate edges
  • Plate perforation can allow cross-contamination, noticed as unexpected level, pressure or fluid-quality changes
  • Blocked passages increase pressure drop and reduce circulation through the exchanger
  • Corrosion or erosion damages plates and can lead to repeated leakage
Service: Inspect for external leakage, corrosion and evidence of cross-contamination, and trend inlet/outlet temperatures and pressure drop where instrumentation permits. During overhaul, keep plate order and orientation correct and examine plates, gaskets and frame condition. Exact tightening dimensions, plate limits and cleaning chemicals must follow manufacturer documentation.
Spare Parts: Carry the correct gasket set, selected replacement plates if the vessel's spares policy requires them, frame hardware and approved cleaning materials for the installed plate material and service.
Use Cases: Used for central cooling, lubricating-oil cooling, freshwater cooling, heating and other heat-transfer duties on most types of powered vessel.
Datasheet
Sondex S-14 200kW Central cooling unverified
Model Family
S-14
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
200
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Heat-transfer surface fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Seal, gasket, braze or tube leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate or tube corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked flow passages caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame, cover or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or covers, port connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with installed materials and deposits. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or cover seals, selected spare plates or approved tube-repair materials as applicable, port seals and manufacturer-recommended corrosion-protection parts. Brazed units are normally replaced as an assembly after an internal structural leak.
Use Cases: It is used for cooling and heating duties on merchant ships, passenger vessels, offshore units or other vessel types where this equipment category is fitted.
Datasheet
Sondex S-14 200kW FW cooling unverified
Model Family
S-14
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
200
Application
FW cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Plate-channel fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Gasket, braze or connection leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked channels caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or external connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with plate and sealing materials. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or connection seals, selected spare plates for openable units, filters and manufacturer-recommended service parts. Brazed units are normally replaced as an assembly after an internal structural leak. Verify materials and dimensions against the exact serial number.
Use Cases: Central cooling, lubricating-oil cooling, freshwater heating, refrigeration and other liquid-to-liquid heat-transfer duties on ships and offshore units.
Datasheet
Sondex Sondex S-14 500kW Central cooling
Sondex S-14 500kW Central cooling unverified
Model Family
S-14
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
500
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Heat-transfer surface fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Seal, gasket, braze or tube leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate or tube corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked flow passages caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame, cover or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or covers, port connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with installed materials and deposits. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or cover seals, selected spare plates or approved tube-repair materials as applicable, port seals and manufacturer-recommended corrosion-protection parts. Brazed units are normally replaced as an assembly after an internal structural leak.
Use Cases: It is used for cooling and heating duties on merchant ships, passenger vessels, offshore units or other vessel types where this equipment category is fitted.
Datasheet
Sondex S-14 500kW FW cooling unverified
Model Family
S-14
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
500
Application
FW cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Plate-channel fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Gasket, braze or connection leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked channels caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or external connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with plate and sealing materials. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or connection seals, selected spare plates for openable units, filters and manufacturer-recommended service parts. Brazed units are normally replaced as an assembly after an internal structural leak. Verify materials and dimensions against the exact serial number.
Use Cases: Central cooling, lubricating-oil cooling, freshwater heating, refrigeration and other liquid-to-liquid heat-transfer duties on ships and offshore units.
Datasheet
Sondex S-14 1000kW Central cooling unverified
Model Family
S-14
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
1000
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet
Sondex S-14 1000kW FW cooling unverified
Model Family
S-14
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
1000
Application
FW cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Plate-channel fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Gasket, braze or connection leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked channels caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or external connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with plate and sealing materials. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or connection seals, selected spare plates for openable units, filters and manufacturer-recommended service parts. Brazed units are normally replaced as an assembly after an internal structural leak. Verify materials and dimensions against the exact serial number.
Use Cases: Central cooling, lubricating-oil cooling, freshwater heating, refrigeration and other liquid-to-liquid heat-transfer duties on ships and offshore units.
Datasheet
Sondex S-19 Series unverified
Model Family
S-19
Heat Exchanger Type
plate_heat_exchanger
Common Failures & Inspection Points
  • Plate fouling or scale reduces heat transfer, noticed as poor outlet temperatures and increasing temperature approach
  • Gasket ageing or incorrect plate compression causes external leakage between plate edges
  • Plate perforation can allow cross-contamination, noticed as unexpected level, pressure or fluid-quality changes
  • Blocked passages increase pressure drop and reduce circulation through the exchanger
  • Corrosion or erosion damages plates and can lead to repeated leakage
Service: Inspect for external leakage, corrosion and evidence of cross-contamination, and trend inlet/outlet temperatures and pressure drop where instrumentation permits. During overhaul, keep plate order and orientation correct and examine plates, gaskets and frame condition. Exact tightening dimensions, plate limits and cleaning chemicals must follow manufacturer documentation.
Spare Parts: Carry the correct gasket set, selected replacement plates if the vessel's spares policy requires them, frame hardware and approved cleaning materials for the installed plate material and service.
Use Cases: Used for central cooling, lubricating-oil cooling, freshwater cooling, heating and other heat-transfer duties on most types of powered vessel.
Datasheet
Sondex Sondex S-19 500kW Central cooling
Sondex S-19 500kW Central cooling unverified
Model Family
S-19
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
500
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Heat-transfer surface fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Seal, gasket, braze or tube leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate or tube corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked flow passages caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame, cover or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or covers, port connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with installed materials and deposits. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or cover seals, selected spare plates or approved tube-repair materials as applicable, port seals and manufacturer-recommended corrosion-protection parts. Brazed units are normally replaced as an assembly after an internal structural leak.
Use Cases: It is used for cooling and heating duties on merchant ships, passenger vessels, offshore units or other vessel types where this equipment category is fitted.
Datasheet
Sondex Sondex S-19 1000kW Central cooling
Sondex S-19 1000kW Central cooling unverified
Model Family
S-19
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
1000
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet
Sondex Sondex S-19 2000kW Central cooling
Sondex S-19 2000kW Central cooling unverified
Model Family
S-19
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
2000
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet
Sondex S-22 Series unverified
Model Family
S-22
Heat Exchanger Type
plate_heat_exchanger
Common Failures & Inspection Points
  • Plate fouling or scale reduces heat transfer, noticed as poor outlet temperatures and increasing temperature approach
  • Gasket ageing or incorrect plate compression causes external leakage between plate edges
  • Plate perforation can allow cross-contamination, noticed as unexpected level, pressure or fluid-quality changes
  • Blocked passages increase pressure drop and reduce circulation through the exchanger
  • Corrosion or erosion damages plates and can lead to repeated leakage
Service: Inspect for external leakage, corrosion and evidence of cross-contamination, and trend inlet/outlet temperatures and pressure drop where instrumentation permits. During overhaul, keep plate order and orientation correct and examine plates, gaskets and frame condition. Exact tightening dimensions, plate limits and cleaning chemicals must follow manufacturer documentation.
Spare Parts: Carry the correct gasket set, selected replacement plates if the vessel's spares policy requires them, frame hardware and approved cleaning materials for the installed plate material and service.
Use Cases: Used for central cooling, lubricating-oil cooling, freshwater cooling, heating and other heat-transfer duties on most types of powered vessel.
Datasheet
Sondex S-22 500kW Central cooling unverified
Model Family
S-22
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
500
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Heat-transfer surface fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Seal, gasket, braze or tube leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate or tube corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked flow passages caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame, cover or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or covers, port connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with installed materials and deposits. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or cover seals, selected spare plates or approved tube-repair materials as applicable, port seals and manufacturer-recommended corrosion-protection parts. Brazed units are normally replaced as an assembly after an internal structural leak.
Use Cases: It is used for cooling and heating duties on merchant ships, passenger vessels, offshore units or other vessel types where this equipment category is fitted.
Datasheet
Sondex S-22 500kW Jacket water cooling unverified
Model Family
S-22
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
500
Application
Jacket water cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet
Sondex S-22 1000kW Central cooling unverified
Model Family
S-22
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
1000
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet
Sondex S-22 1000kW Jacket water cooling unverified
Model Family
S-22
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
1000
Application
Jacket water cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet
Sondex S-22 2000kW Central cooling unverified
Model Family
S-22
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
2000
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet
Sondex S-22 2000kW Jacket water cooling unverified
Model Family
S-22
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
2000
Application
Jacket water cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet
Sondex S-22 3000kW Central cooling unverified
Model Family
S-22
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
3000
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet
Sondex S-22 3000kW Jacket water cooling unverified
Model Family
S-22
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
3000
Application
Jacket water cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet
Sondex S-37 Series unverified
Model Family
S-37
Heat Exchanger Type
plate_heat_exchanger
Common Failures & Inspection Points
  • Plate fouling or scale reduces heat transfer, noticed as poor outlet temperatures and increasing temperature approach
  • Gasket ageing or incorrect plate compression causes external leakage between plate edges
  • Plate perforation can allow cross-contamination, noticed as unexpected level, pressure or fluid-quality changes
  • Blocked passages increase pressure drop and reduce circulation through the exchanger
  • Corrosion or erosion damages plates and can lead to repeated leakage
Service: Inspect for external leakage, corrosion and evidence of cross-contamination, and trend inlet/outlet temperatures and pressure drop where instrumentation permits. During overhaul, keep plate order and orientation correct and examine plates, gaskets and frame condition. Exact tightening dimensions, plate limits and cleaning chemicals must follow manufacturer documentation.
Spare Parts: Carry the correct gasket set, selected replacement plates if the vessel's spares policy requires them, frame hardware and approved cleaning materials for the installed plate material and service.
Use Cases: Used for central cooling, lubricating-oil cooling, freshwater cooling, heating and other heat-transfer duties on most types of powered vessel.
Datasheet
Sondex Sondex S-37 1000kW Central cooling
Sondex S-37 1000kW Central cooling unverified
Model Family
S-37
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
1000
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet
Sondex S-37 2000kW Central cooling unverified
Model Family
S-37
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
2000
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet
Sondex S-37 3000kW Central cooling unverified
Model Family
S-37
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
3000
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet
Sondex S-37 5000kW Central cooling unverified
Model Family
S-37
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
5000
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet
Sondex S-62 Series unverified
Model Family
S-62
Heat Exchanger Type
plate_heat_exchanger
Common Failures & Inspection Points
  • Plate fouling or scale reduces heat transfer, noticed as poor outlet temperatures and increasing temperature approach
  • Gasket ageing or incorrect plate compression causes external leakage between plate edges
  • Plate perforation can allow cross-contamination, noticed as unexpected level, pressure or fluid-quality changes
  • Blocked passages increase pressure drop and reduce circulation through the exchanger
  • Corrosion or erosion damages plates and can lead to repeated leakage
Service: Inspect for external leakage, corrosion and evidence of cross-contamination, and trend inlet/outlet temperatures and pressure drop where instrumentation permits. During overhaul, keep plate order and orientation correct and examine plates, gaskets and frame condition. Exact tightening dimensions, plate limits and cleaning chemicals must follow manufacturer documentation.
Spare Parts: Carry the correct gasket set, selected replacement plates if the vessel's spares policy requires them, frame hardware and approved cleaning materials for the installed plate material and service.
Use Cases: Used for central cooling, lubricating-oil cooling, freshwater cooling, heating and other heat-transfer duties on most types of powered vessel.
Datasheet
Sondex Sondex S-62 2000kW Central cooling
Sondex S-62 2000kW Central cooling unverified
Model Family
S-62
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
2000
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet
Sondex S-62 3000kW Central cooling unverified
Model Family
S-62
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
3000
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet
Sondex S-62 5000kW Central cooling unverified
Model Family
S-62
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
5000
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet
Sondex S-86 Series unverified
Model Family
S-86
Heat Exchanger Type
plate_heat_exchanger
Common Failures & Inspection Points
  • Plate fouling or scale reduces heat transfer, noticed as poor outlet temperatures and increasing temperature approach
  • Gasket ageing or incorrect plate compression causes external leakage between plate edges
  • Plate perforation can allow cross-contamination, noticed as unexpected level, pressure or fluid-quality changes
  • Blocked passages increase pressure drop and reduce circulation through the exchanger
  • Corrosion or erosion damages plates and can lead to repeated leakage
Service: Inspect for external leakage, corrosion and evidence of cross-contamination, and trend inlet/outlet temperatures and pressure drop where instrumentation permits. During overhaul, keep plate order and orientation correct and examine plates, gaskets and frame condition. Exact tightening dimensions, plate limits and cleaning chemicals must follow manufacturer documentation.
Spare Parts: Carry the correct gasket set, selected replacement plates if the vessel's spares policy requires them, frame hardware and approved cleaning materials for the installed plate material and service.
Use Cases: Used for central cooling, lubricating-oil cooling, freshwater cooling, heating and other heat-transfer duties on most types of powered vessel.
Datasheet
Sondex S-86 3000kW Central cooling unverified
Model Family
S-86
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
3000
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet
Sondex S-86 5000kW Central cooling unverified
Model Family
S-86
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
5000
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet
Sondex S-100 Series unverified
Model Family
S-100
Heat Exchanger Type
plate_heat_exchanger
Common Failures & Inspection Points
  • Plate fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Gasket deterioration caused by age, temperature, chemicals or incorrect compression, resulting in external leakage or cross-leakage paths
  • Plate corrosion or pinholing caused by incompatible fluid chemistry, resulting in contamination between circuits
  • Blocked channels caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame or tightening problems caused by incorrect assembly or piping stress, resulting in leakage and uneven gasket loading
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect the frame, tightening arrangement, port connections and visible gasket edges for leakage or distortion. Clean plates using methods compatible with plate and gasket materials and inspect individual plates for corrosion, deformation or cracking when opened. Confirm plate order and orientation during reassembly. Support connected piping independently so nozzle loads are not transferred into the frame. Refer to the manufacturer documentation for the exact tightening dimension, gasket material, cleaning chemistry and pressure-test criteria.
Spare Parts: Keep a set of model-correct plate gaskets, selected spare plates, port gaskets and any special frame sealing components recommended by the manufacturer. For critical coolers, enough plates and gaskets to recover from localized damage can reduce downtime. Verify materials and plate pattern against the exact serial number.
Use Cases: Central cooling, lubricating-oil cooling, freshwater heating and other liquid-to-liquid heat-transfer duties on ships and offshore units.
Datasheet
Sondex S-100 3000kW Central cooling unverified
Model Family
S-100
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
3000
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet
Sondex S-100 5000kW Central cooling unverified
Model Family
S-100
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
5000
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet

Kelvion

48
Kelvion NX 25M unverified
5 m² surface
Exchanger type
plate
Surface area m2
5
Max. Pressure (bar)
25
Application
LO/FW cooler
Common Failures & Inspection Points
  • Fouling or scaling increases differential pressure and reduces heat-transfer performance
  • Gasket, seal or tube-joint deterioration causes external leakage
  • Plate or tube corrosion, erosion or cracking causes internal cross-contamination between fluid circuits
  • Blocked strainers or restricted valves reduce flow and produce abnormal inlet-to-outlet temperatures
  • Incorrect reassembly, venting or flow distribution after service causes leakage or poor thermal performance
Service: Trend inlet and outlet temperatures and differential pressure and inspect for leakage. Open or clean the exchanger only by the approved method and examine plates, tubes, gaskets or end covers for deposits, corrosion and deformation. Investigate any cross-contamination promptly. Refer to the manufacturer documentation for the exact figure for tightening, test pressure and wear limits.
Spare Parts: Carry the correct gaskets or seals, representative plates or tube-repair provisions where approved, port seals, strainers and compatible cleaning materials.
Use Cases: Central cooling, lubricating-oil cooling, fuel heating, HVAC, condensing and process duties.
Datasheet
Kelvion NX 50M unverified
15 m² surface
Exchanger type
plate
Surface area m2
15
Max. Pressure (bar)
25
Application
central cooler
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces from scale, sludge, biological growth, or oil contamination reduces thermal performance and appears as rising outlet temperature
  • Gasket, seal, tube, or plate leakage from ageing, corrosion, or mechanical damage causes external leakage or cross-contamination
  • Restricted flow from debris or deposits raises pressure drop and reduces downstream flow
  • Corrosion or erosion of wetted surfaces from unsuitable water chemistry, velocity, or material attack produces pinhole leakage
  • Loose covers, plate packs, or connections after maintenance cause leakage, unstable temperatures, or loss of system pressure
Service: Inspect external leakage, corrosion, temperature difference, flow restriction, and evidence of cross-contamination. Trend inlet and outlet temperatures and differential pressure where instruments are fitted, clean heat-transfer surfaces using an approved method, and verify assembly against manufacturer documentation.
Spare Parts: Keep the applicable gasket or seal set, connection seals, and any model-specific plate, tube, or fastening items recommended by the manufacturer.
Use Cases: Used on merchant ships, offshore vessels, passenger ships, fishing vessels, and workboats wherever machinery or process fluids require controlled heating or cooling.
Datasheet
Kelvion NX 100L unverified
30 m² surface
Exchanger type
plate
Surface area m2
30
Max. Pressure (bar)
25
Application
central cooler
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces from scale, sludge, biological growth, or oil contamination reduces thermal performance and appears as rising outlet temperature
  • Gasket, seal, tube, or plate leakage from ageing, corrosion, or mechanical damage causes external leakage or cross-contamination
  • Restricted flow from debris or deposits raises pressure drop and reduces downstream flow
  • Corrosion or erosion of wetted surfaces from unsuitable water chemistry, velocity, or material attack produces pinhole leakage
  • Loose covers, plate packs, or connections after maintenance cause leakage, unstable temperatures, or loss of system pressure
Service: Inspect external leakage, corrosion, temperature difference, flow restriction, and evidence of cross-contamination. Trend inlet and outlet temperatures and differential pressure where instruments are fitted, clean heat-transfer surfaces using an approved method, and verify assembly against manufacturer documentation.
Spare Parts: Keep the applicable gasket or seal set, connection seals, and any model-specific plate, tube, or fastening items recommended by the manufacturer.
Use Cases: Used on merchant ships, offshore vessels, passenger ships, fishing vessels, and workboats wherever machinery or process fluids require controlled heating or cooling.
Datasheet
Kelvion NX 250L unverified
60 m² surface
Exchanger type
plate
Surface area m2
60
Max. Pressure (bar)
25
Application
main central cooler
Common Failures & Inspection Points
  • Fouling or scaling increases differential pressure and reduces heat-transfer performance
  • Gasket, braze, seal or tube-joint deterioration causes external leakage
  • Plate or tube corrosion, erosion or cracking causes internal cross-contamination between fluid circuits
  • Blocked strainers or restricted valves reduce flow and produce abnormal inlet-to-outlet temperatures
  • Incorrect reassembly, venting or flow distribution after service causes leakage or poor thermal performance
Service: Trend inlet and outlet temperatures and differential pressure and inspect for leakage. Open or clean the exchanger only by the approved method and examine plates, tubes, gaskets or end covers for deposits, corrosion and deformation. Investigate cross-contamination promptly. Refer to the manufacturer documentation for the exact figure for tightening, test pressure and wear limits.
Spare Parts: Carry the correct gaskets or seals, representative plates or tube-repair provisions where approved, port seals, strainers and compatible cleaning materials.
Use Cases: Central cooling, lubricating-oil cooling, fuel heating, HVAC, condensing and process duties.
Datasheet
Kelvion GX 12 unverified
3 m² surface
Exchanger type
plate
Surface area m2
3
Max. Pressure (bar)
30
Application
high-pressure
Common Failures & Inspection Points
  • Fouling or scaling increases differential pressure and reduces heat-transfer performance
  • Gasket, seal or tube-joint deterioration causes external leakage
  • Plate or tube corrosion, erosion or cracking causes internal cross-contamination between fluid circuits
  • Blocked strainers or restricted valves reduce flow and produce abnormal inlet-to-outlet temperatures
  • Incorrect reassembly, venting or flow distribution after service causes leakage or poor thermal performance
Service: Trend inlet and outlet temperatures and differential pressure and inspect for leakage. Open or clean the exchanger only by the approved method and examine plates, tubes, gaskets or end covers for deposits, corrosion and deformation. Investigate any cross-contamination promptly. Refer to the manufacturer documentation for the exact figure for tightening, test pressure and wear limits.
Spare Parts: Carry the correct gaskets or seals, representative plates or tube-repair provisions where approved, port seals, strainers and compatible cleaning materials.
Use Cases: Central cooling, lubricating-oil cooling, fuel heating, HVAC, condensing and process duties.
Datasheet
Kelvion GX 26 unverified
10 m² surface
Exchanger type
plate
Surface area m2
10
Max. Pressure (bar)
30
Application
high-pressure
Common Failures & Inspection Points
  • Fouling or scaling increases differential pressure and reduces heat-transfer performance
  • Gasket, seal or tube-joint deterioration causes external leakage
  • Plate or tube corrosion, erosion or cracking causes internal cross-contamination between fluid circuits
  • Blocked strainers or restricted valves reduce flow and produce abnormal inlet-to-outlet temperatures
  • Incorrect reassembly, venting or flow distribution after service causes leakage or poor thermal performance
Service: Trend inlet and outlet temperatures and differential pressure and inspect for leakage. Open or clean the exchanger only by the approved method and examine plates, tubes, gaskets or end covers for deposits, corrosion and deformation. Investigate any cross-contamination promptly. Refer to the manufacturer documentation for the exact figure for tightening, test pressure and wear limits.
Spare Parts: Carry the correct gaskets or seals, representative plates or tube-repair provisions where approved, port seals, strainers and compatible cleaning materials.
Use Cases: Central cooling, lubricating-oil cooling, fuel heating, HVAC, condensing and process duties.
Datasheet
Kelvion GX 42 unverified
20 m² surface
Exchanger type
plate
Surface area m2
20
Max. Pressure (bar)
30
Application
high-pressure
Common Failures & Inspection Points
  • Fouling or scaling increases differential pressure and reduces heat-transfer performance
  • Gasket, seal or tube-joint deterioration causes external leakage
  • Plate or tube corrosion, erosion or cracking causes internal cross-contamination between fluid circuits
  • Blocked strainers or restricted valves reduce flow and produce abnormal inlet-to-outlet temperatures
  • Incorrect reassembly, venting or flow distribution after service causes leakage or poor thermal performance
Service: Trend inlet and outlet temperatures and differential pressure and inspect for leakage. Open or clean the exchanger only by the approved method and examine plates, tubes, gaskets or end covers for deposits, corrosion and deformation. Investigate any cross-contamination promptly. Refer to the manufacturer documentation for the exact figure for tightening, test pressure and wear limits.
Spare Parts: Carry the correct gaskets or seals, representative plates or tube-repair provisions where approved, port seals, strainers and compatible cleaning materials.
Use Cases: Central cooling, lubricating-oil cooling, fuel heating, HVAC, condensing and process duties.
Datasheet
Kelvion NX 25 Series unverified
Model Family
NX 25
Heat Exchanger Type
plate_heat_exchanger
Datasheet
Kelvion NX 25 50kW LO cooling unverified
Model Family
NX 25
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
50
Application
LO cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Plate-channel fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Gasket, braze or connection leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked channels caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or external connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with plate and sealing materials. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or connection seals, selected spare plates for openable units, filters and manufacturer-recommended service parts. Brazed units are normally replaced as an assembly after an internal structural leak. Verify materials and dimensions against the exact serial number.
Use Cases: Central cooling, lubricating-oil cooling, freshwater heating, refrigeration and other liquid-to-liquid heat-transfer duties on ships and offshore units.
Datasheet
Kelvion NX 25 50kW FW cooling unverified
Model Family
NX 25
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
50
Application
FW cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Plate-channel fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Gasket, braze or connection leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked channels caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or external connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with plate and sealing materials. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or connection seals, selected spare plates for openable units, filters and manufacturer-recommended service parts. Brazed units are normally replaced as an assembly after an internal structural leak. Verify materials and dimensions against the exact serial number.
Use Cases: Central cooling, lubricating-oil cooling, freshwater heating, refrigeration and other liquid-to-liquid heat-transfer duties on ships and offshore units.
Datasheet
Kelvion NX 25 100kW LO cooling unverified
Model Family
NX 25
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
100
Application
LO cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Heat-transfer surface fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Seal, gasket, braze or tube leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate or tube corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked flow passages caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame, cover or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or covers, port connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with installed materials and deposits. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or cover seals, selected spare plates or approved tube-repair materials as applicable, port seals and manufacturer-recommended corrosion-protection parts. Brazed units are normally replaced as an assembly after an internal structural leak.
Use Cases: It is used for cooling and heating duties on merchant ships, passenger vessels, offshore units or other vessel types where this equipment category is fitted.
Datasheet
Kelvion NX 25 100kW FW cooling unverified
Model Family
NX 25
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
100
Application
FW cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Heat-transfer surface fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Seal, gasket, braze or tube leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate or tube corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked flow passages caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame, cover or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or covers, port connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with installed materials and deposits. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or cover seals, selected spare plates or approved tube-repair materials as applicable, port seals and manufacturer-recommended corrosion-protection parts. Brazed units are normally replaced as an assembly after an internal structural leak.
Use Cases: It is used for cooling and heating duties on merchant ships, passenger vessels, offshore units or other vessel types where this equipment category is fitted.
Datasheet
Kelvion NX 25 200kW LO cooling unverified
Model Family
NX 25
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
200
Application
LO cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Heat-transfer surface fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Seal, gasket, braze or tube leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate or tube corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked flow passages caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame, cover or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or covers, port connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with installed materials and deposits. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or cover seals, selected spare plates or approved tube-repair materials as applicable, port seals and manufacturer-recommended corrosion-protection parts. Brazed units are normally replaced as an assembly after an internal structural leak.
Use Cases: It is used for cooling and heating duties on merchant ships, passenger vessels, offshore units or other vessel types where this equipment category is fitted.
Datasheet
Kelvion NX 25 200kW FW cooling unverified
Model Family
NX 25
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
200
Application
FW cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Heat-transfer surface fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Seal, gasket, braze or tube leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate or tube corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked flow passages caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame, cover or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or covers, port connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with installed materials and deposits. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or cover seals, selected spare plates or approved tube-repair materials as applicable, port seals and manufacturer-recommended corrosion-protection parts. Brazed units are normally replaced as an assembly after an internal structural leak.
Use Cases: It is used for cooling and heating duties on merchant ships, passenger vessels, offshore units or other vessel types where this equipment category is fitted.
Datasheet
Kelvion NX 25 500kW LO cooling unverified
Model Family
NX 25
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
500
Application
LO cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Heat-transfer surface fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Seal, gasket, braze or tube leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate or tube corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked flow passages caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame, cover or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or covers, port connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with installed materials and deposits. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or cover seals, selected spare plates or approved tube-repair materials as applicable, port seals and manufacturer-recommended corrosion-protection parts. Brazed units are normally replaced as an assembly after an internal structural leak.
Use Cases: It is used for cooling and heating duties on merchant ships, passenger vessels, offshore units or other vessel types where this equipment category is fitted.
Datasheet
Kelvion NX 25 500kW FW cooling unverified
Model Family
NX 25
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
500
Application
FW cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Heat-transfer surface fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Seal, gasket, braze or tube leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate or tube corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked flow passages caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame, cover or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or covers, port connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with installed materials and deposits. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or cover seals, selected spare plates or approved tube-repair materials as applicable, port seals and manufacturer-recommended corrosion-protection parts. Brazed units are normally replaced as an assembly after an internal structural leak.
Use Cases: It is used for cooling and heating duties on merchant ships, passenger vessels, offshore units or other vessel types where this equipment category is fitted.
Datasheet
Kelvion NX 50 Series unverified
Model Family
NX 50
Heat Exchanger Type
plate_heat_exchanger
Common Failures & Inspection Points
  • Plate fouling or scaling increases differential pressure and reduces heat-transfer performance
  • Gasket ageing, displacement or chemical attack causes external leakage from the plate pack
  • Plate corrosion, erosion or cracking causes internal cross-contamination between the two fluid circuits
  • Incorrect plate sequence or compression after overhaul causes immediate leakage or poor thermal performance
  • Blocked upstream strainers or restricted valves reduce flow and produce abnormal inlet-to-outlet temperatures
Service: Trend temperatures and differential pressure and inspect the plate pack for leakage. When opened, examine plates for deposits, corrosion and deformation and check gaskets for hardening or displacement. Reassemble only in the documented plate sequence and compression condition. Refer to the manufacturer documentation for the exact figure for tightening dimension, cleaning method and acceptance limits.
Spare Parts: Carry the correct gasket type, representative spare plates, port seals, compatible cleaning materials and associated strainer elements.
Use Cases: Central cooling, jacket-water cooling, oil cooling, HVAC, heating and process duties.
Datasheet
Kelvion Kelvion NX 50 100kW LO cooling
Kelvion NX 50 100kW LO cooling unverified
Model Family
NX 50
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
100
Application
LO cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Heat-transfer surface fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Seal, gasket, braze or tube leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate or tube corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked flow passages caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame, cover or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or covers, port connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with installed materials and deposits. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or cover seals, selected spare plates or approved tube-repair materials as applicable, port seals and manufacturer-recommended corrosion-protection parts. Brazed units are normally replaced as an assembly after an internal structural leak.
Use Cases: It is used for cooling and heating duties on merchant ships, passenger vessels, offshore units or other vessel types where this equipment category is fitted.
Datasheet
Kelvion NX 50 100kW Central cooling unverified
Model Family
NX 50
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
100
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet
Kelvion NX 50 200kW LO cooling unverified
Model Family
NX 50
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
200
Application
LO cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Heat-transfer surface fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Seal, gasket, braze or tube leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate or tube corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked flow passages caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame, cover or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or covers, port connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with installed materials and deposits. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or cover seals, selected spare plates or approved tube-repair materials as applicable, port seals and manufacturer-recommended corrosion-protection parts. Brazed units are normally replaced as an assembly after an internal structural leak.
Use Cases: It is used for cooling and heating duties on merchant ships, passenger vessels, offshore units or other vessel types where this equipment category is fitted.
Datasheet
Kelvion NX 50 200kW Central cooling unverified
Model Family
NX 50
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
200
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet
Kelvion Kelvion NX 50 500kW LO cooling
Kelvion NX 50 500kW LO cooling unverified
Model Family
NX 50
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
500
Application
LO cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Heat-transfer surface fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Seal, gasket, braze or tube leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate or tube corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked flow passages caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame, cover or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or covers, port connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with installed materials and deposits. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or cover seals, selected spare plates or approved tube-repair materials as applicable, port seals and manufacturer-recommended corrosion-protection parts. Brazed units are normally replaced as an assembly after an internal structural leak.
Use Cases: It is used for cooling and heating duties on merchant ships, passenger vessels, offshore units or other vessel types where this equipment category is fitted.
Datasheet
Kelvion NX 50 500kW Central cooling unverified
Model Family
NX 50
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
500
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet
Kelvion Kelvion NX 50 1000kW LO cooling
Kelvion NX 50 1000kW LO cooling unverified
Model Family
NX 50
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
1000
Application
LO cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Heat-transfer surface fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Seal, gasket, braze or tube leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate or tube corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked flow passages caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame, cover or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or covers, port connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with installed materials and deposits. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or cover seals, selected spare plates or approved tube-repair materials as applicable, port seals and manufacturer-recommended corrosion-protection parts. Brazed units are normally replaced as an assembly after an internal structural leak.
Use Cases: It is used for cooling and heating duties on merchant ships, passenger vessels, offshore units or other vessel types where this equipment category is fitted.
Datasheet
Kelvion NX 50 1000kW Central cooling unverified
Model Family
NX 50
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
1000
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet
Kelvion NX 100 Series unverified
Model Family
NX 100
Heat Exchanger Type
plate_heat_exchanger
Common Failures & Inspection Points
  • Fouling on the heat-transfer surfaces from scale, sludge, biological growth, or oil contamination reduces thermal performance and appears as rising outlet temperature or reduced temperature approach
  • Gasket, seal, tube, or plate leakage caused by ageing, corrosion, or mechanical damage can allow external leakage or cross-contamination between circuits
  • Restricted flow from debris or deposits raises differential pressure and can reduce downstream flow
  • Corrosion or erosion of wetted surfaces caused by unsuitable water chemistry, velocity, or material attack can produce pinhole leakage and contamination
  • Loose covers, plate packs, or connections after maintenance can cause leakage, unstable temperatures, or loss of system pressure
Service: Inspect for external leakage, corrosion, abnormal temperature difference, flow restriction, and evidence of cross-contamination. Trend inlet and outlet temperatures and differential pressure where instruments are fitted, clean the heat-transfer surfaces using an approved method, and verify tightening or assembly against the manufacturer documentation.
Spare Parts: Keep the applicable gasket or seal set, connection seals, and any model-specific plate, tube, or fastening items recommended by the manufacturer. For the exact spare quantities and part numbers, refer to the manufacturer documentation.
Use Cases: Used on merchant ships, offshore vessels, passenger ships, fishing vessels, and workboats wherever machinery or process fluids require controlled heating or cooling.
Datasheet
Kelvion NX 100 200kW Central cooling unverified
Model Family
NX 100
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
200
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet
Kelvion NX 100 500kW Central cooling unverified
Model Family
NX 100
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
500
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet
Kelvion NX 100 1000kW Central cooling unverified
Model Family
NX 100
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
1000
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet
Kelvion NX 100 2000kW Central cooling unverified
Model Family
NX 100
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
2000
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet
Kelvion NX 150 Series unverified
Model Family
NX 150
Heat Exchanger Type
plate_heat_exchanger
Common Failures & Inspection Points
  • Fouling on the heat-transfer surfaces from scale, sludge, biological growth, or oil contamination reduces thermal performance and appears as rising outlet temperature or reduced temperature approach
  • Gasket, seal, tube, or plate leakage caused by ageing, corrosion, or mechanical damage can allow external leakage or cross-contamination between circuits
  • Restricted flow from debris or deposits raises differential pressure and can reduce downstream flow
  • Corrosion or erosion of wetted surfaces caused by unsuitable water chemistry, velocity, or material attack can produce pinhole leakage and contamination
  • Loose covers, plate packs, or connections after maintenance can cause leakage, unstable temperatures, or loss of system pressure
Service: Inspect for external leakage, corrosion, abnormal temperature difference, flow restriction, and evidence of cross-contamination. Trend inlet and outlet temperatures and differential pressure where instruments are fitted, clean the heat-transfer surfaces using an approved method, and verify tightening or assembly against the manufacturer documentation.
Spare Parts: Keep the applicable gasket or seal set, connection seals, and any model-specific plate, tube, or fastening items recommended by the manufacturer. For the exact spare quantities and part numbers, refer to the manufacturer documentation.
Use Cases: Used on merchant ships, offshore vessels, passenger ships, fishing vessels, and workboats wherever machinery or process fluids require controlled heating or cooling.
Datasheet
Kelvion NX 150 500kW Central cooling unverified
Model Family
NX 150
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
500
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet
Kelvion NX 150 500kW Jacket water cooling unverified
Model Family
NX 150
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
500
Application
Jacket water cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet
Kelvion NX 150 1000kW Central cooling unverified
Model Family
NX 150
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
1000
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet
Kelvion NX 150 1000kW Jacket water cooling unverified
Model Family
NX 150
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
1000
Application
Jacket water cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet
Kelvion NX 150 2000kW Central cooling unverified
Model Family
NX 150
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
2000
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet
Kelvion NX 150 2000kW Jacket water cooling unverified
Model Family
NX 150
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
2000
Application
Jacket water cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet
Kelvion NX 150 3000kW Central cooling unverified
Model Family
NX 150
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
3000
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet
Kelvion NX 150 3000kW Jacket water cooling unverified
Model Family
NX 150
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
3000
Application
Jacket water cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet
Kelvion NX 250 Series unverified
Model Family
NX 250
Heat Exchanger Type
plate_heat_exchanger
Common Failures & Inspection Points
  • Fouling on the heat-transfer surfaces from scale, sludge, biological growth, or oil contamination reduces thermal performance and appears as rising outlet temperature or reduced temperature approach
  • Gasket, seal, tube, or plate leakage caused by ageing, corrosion, or mechanical damage can allow external leakage or cross-contamination between circuits
  • Restricted flow from debris or deposits raises differential pressure and can reduce downstream flow
  • Corrosion or erosion of wetted surfaces caused by unsuitable water chemistry, velocity, or material attack can produce pinhole leakage and contamination
  • Loose covers, plate packs, or connections after maintenance can cause leakage, unstable temperatures, or loss of system pressure
Service: Inspect for external leakage, corrosion, abnormal temperature difference, flow restriction, and evidence of cross-contamination. Trend inlet and outlet temperatures and differential pressure where instruments are fitted, clean the heat-transfer surfaces using an approved method, and verify tightening or assembly against the manufacturer documentation.
Spare Parts: Keep the applicable gasket or seal set, connection seals, and any model-specific plate, tube, or fastening items recommended by the manufacturer. For the exact spare quantities and part numbers, refer to the manufacturer documentation.
Use Cases: Used on merchant ships, offshore vessels, passenger ships, fishing vessels, and workboats wherever machinery or process fluids require controlled heating or cooling.
Datasheet
Kelvion NX 250 1000kW Central cooling unverified
Model Family
NX 250
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
1000
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet
Kelvion NX 250 2000kW Central cooling unverified
Model Family
NX 250
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
2000
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet
Kelvion NX 250 3000kW Central cooling unverified
Model Family
NX 250
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
3000
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet
Kelvion NX 250 5000kW Central cooling unverified
Model Family
NX 250
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
5000
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet
Kelvion K 070 Series unverified
Model Family
K 070
Heat Exchanger Type
plate_heat_exchanger
Common Failures & Inspection Points
  • Plate fouling or scaling increases differential pressure and reduces heat-transfer performance
  • Gasket ageing, displacement or chemical attack causes external leakage from the plate pack
  • Plate corrosion, erosion or cracking causes internal cross-contamination between the two fluid circuits
  • Incorrect plate sequence or compression after overhaul causes immediate leakage or poor thermal performance
  • Blocked upstream strainers or restricted valves reduce flow and produce abnormal inlet-to-outlet temperatures
Service: Trend temperatures and differential pressure and inspect the plate pack for leakage. When opened, examine plates for deposits, corrosion and deformation and check gaskets for hardening or displacement. Reassemble only in the documented plate sequence and compression condition. Refer to the manufacturer documentation for the exact figure for tightening dimension, cleaning method and acceptance limits.
Spare Parts: Carry the correct gasket type, representative spare plates, port seals, compatible cleaning materials and associated strainer elements.
Use Cases: Central cooling, jacket-water cooling, oil cooling, HVAC, heating and process duties.
Datasheet
Kelvion K 070 50kW LO cooling unverified
Model Family
K 070
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
50
Application
LO cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Plate-channel fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Gasket, braze or connection leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked channels caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or external connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with plate and sealing materials. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or connection seals, selected spare plates for openable units, filters and manufacturer-recommended service parts. Brazed units are normally replaced as an assembly after an internal structural leak. Verify materials and dimensions against the exact serial number.
Use Cases: Central cooling, lubricating-oil cooling, freshwater heating, refrigeration and other liquid-to-liquid heat-transfer duties on ships and offshore units.
Datasheet
Kelvion K 070 100kW LO cooling unverified
Model Family
K 070
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
100
Application
LO cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Heat-transfer surface fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Seal, gasket, braze or tube leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate or tube corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked flow passages caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame, cover or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or covers, port connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with installed materials and deposits. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or cover seals, selected spare plates or approved tube-repair materials as applicable, port seals and manufacturer-recommended corrosion-protection parts. Brazed units are normally replaced as an assembly after an internal structural leak.
Use Cases: It is used for cooling and heating duties on merchant ships, passenger vessels, offshore units or other vessel types where this equipment category is fitted.
Datasheet
Kelvion K 070 200kW LO cooling unverified
Model Family
K 070
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
200
Application
LO cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Heat-transfer surface fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Seal, gasket, braze or tube leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate or tube corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked flow passages caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame, cover or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or covers, port connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with installed materials and deposits. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or cover seals, selected spare plates or approved tube-repair materials as applicable, port seals and manufacturer-recommended corrosion-protection parts. Brazed units are normally replaced as an assembly after an internal structural leak.
Use Cases: It is used for cooling and heating duties on merchant ships, passenger vessels, offshore units or other vessel types where this equipment category is fitted.
Datasheet

Vahterus

40
Vahterus PSHE S Series unverified
Model Family
PSHE S
Heat Exchanger Type
plate_heat_exchanger
Common Failures & Inspection Points
  • Fouling on the heat-transfer surfaces from scale, sludge, biological growth, or oil contamination reduces thermal performance and appears as rising outlet temperature or reduced temperature approach
  • Gasket, seal, tube, or plate leakage caused by ageing, corrosion, or mechanical damage can allow external leakage or cross-contamination between circuits
  • Restricted flow from debris or deposits raises differential pressure and can reduce downstream flow
  • Corrosion or erosion of wetted surfaces caused by unsuitable water chemistry, velocity, or material attack can produce pinhole leakage and contamination
  • Loose covers, plate packs, or connections after maintenance can cause leakage, unstable temperatures, or loss of system pressure
Service: Inspect for external leakage, corrosion, abnormal temperature difference, flow restriction, and evidence of cross-contamination. Trend inlet and outlet temperatures and differential pressure where instruments are fitted, clean the heat-transfer surfaces using an approved method, and verify tightening or assembly against the manufacturer documentation.
Spare Parts: Keep the applicable gasket or seal set, connection seals, and any model-specific plate, tube, or fastening items recommended by the manufacturer. For the exact spare quantities and part numbers, refer to the manufacturer documentation.
Use Cases: Used on merchant ships, offshore vessels, passenger ships, fishing vessels, and workboats wherever machinery or process fluids require controlled heating or cooling.
Datasheet
Vahterus PSHE S 50kW LO cooling unverified
Model Family
PSHE S
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
50
Application
LO cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Heat-transfer surface fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Seal, gasket, braze or tube leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate or tube corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked flow passages caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame, cover or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or covers, port connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with installed materials and deposits. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or cover seals, selected spare plates or approved tube-repair materials as applicable, port seals and manufacturer-recommended corrosion-protection parts. Brazed units are normally replaced as an assembly after an internal structural leak.
Use Cases: It is used for cooling and heating duties on merchant ships, passenger vessels, offshore units or other vessel types where this equipment category is fitted.
Datasheet
Vahterus PSHE S 50kW FW cooling unverified
Model Family
PSHE S
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
50
Application
FW cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Heat-transfer surface fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Seal, gasket, braze or tube leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate or tube corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked flow passages caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame, cover or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or covers, port connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with installed materials and deposits. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or cover seals, selected spare plates or approved tube-repair materials as applicable, port seals and manufacturer-recommended corrosion-protection parts. Brazed units are normally replaced as an assembly after an internal structural leak.
Use Cases: It is used for cooling and heating duties on merchant ships, passenger vessels, offshore units or other vessel types where this equipment category is fitted.
Datasheet
Vahterus PSHE S 100kW LO cooling unverified
Model Family
PSHE S
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
100
Application
LO cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Heat-transfer surface fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Seal, gasket, braze or tube leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate or tube corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked flow passages caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame, cover or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or covers, port connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with installed materials and deposits. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or cover seals, selected spare plates or approved tube-repair materials as applicable, port seals and manufacturer-recommended corrosion-protection parts. Brazed units are normally replaced as an assembly after an internal structural leak.
Use Cases: It is used for cooling and heating duties on merchant ships, passenger vessels, offshore units or other vessel types where this equipment category is fitted.
Datasheet
Vahterus PSHE S 100kW FW cooling unverified
Model Family
PSHE S
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
100
Application
FW cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Heat-transfer surface fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Seal, gasket, braze or tube leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate or tube corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked flow passages caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame, cover or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or covers, port connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with installed materials and deposits. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or cover seals, selected spare plates or approved tube-repair materials as applicable, port seals and manufacturer-recommended corrosion-protection parts. Brazed units are normally replaced as an assembly after an internal structural leak.
Use Cases: It is used for cooling and heating duties on merchant ships, passenger vessels, offshore units or other vessel types where this equipment category is fitted.
Datasheet
Vahterus PSHE S 200kW LO cooling unverified
Model Family
PSHE S
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
200
Application
LO cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Heat-transfer surface fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Seal, gasket, braze or tube leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate or tube corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked flow passages caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame, cover or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or covers, port connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with installed materials and deposits. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or cover seals, selected spare plates or approved tube-repair materials as applicable, port seals and manufacturer-recommended corrosion-protection parts. Brazed units are normally replaced as an assembly after an internal structural leak.
Use Cases: It is used for cooling and heating duties on merchant ships, passenger vessels, offshore units or other vessel types where this equipment category is fitted.
Datasheet
Vahterus PSHE S 200kW FW cooling unverified
Model Family
PSHE S
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
200
Application
FW cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Heat-transfer surface fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Seal, gasket, braze or tube leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate or tube corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked flow passages caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame, cover or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or covers, port connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with installed materials and deposits. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or cover seals, selected spare plates or approved tube-repair materials as applicable, port seals and manufacturer-recommended corrosion-protection parts. Brazed units are normally replaced as an assembly after an internal structural leak.
Use Cases: It is used for cooling and heating duties on merchant ships, passenger vessels, offshore units or other vessel types where this equipment category is fitted.
Datasheet
Vahterus PSHE S 500kW LO cooling unverified
Model Family
PSHE S
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
500
Application
LO cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Heat-transfer surface fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Seal, gasket, braze or tube leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate or tube corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked flow passages caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame, cover or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or covers, port connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with installed materials and deposits. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or cover seals, selected spare plates or approved tube-repair materials as applicable, port seals and manufacturer-recommended corrosion-protection parts. Brazed units are normally replaced as an assembly after an internal structural leak.
Use Cases: It is used for cooling and heating duties on merchant ships, passenger vessels, offshore units or other vessel types where this equipment category is fitted.
Datasheet
Vahterus PSHE S 500kW FW cooling unverified
Model Family
PSHE S
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
500
Application
FW cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Heat-transfer surface fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Seal, gasket, braze or tube leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate or tube corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked flow passages caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame, cover or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or covers, port connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with installed materials and deposits. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or cover seals, selected spare plates or approved tube-repair materials as applicable, port seals and manufacturer-recommended corrosion-protection parts. Brazed units are normally replaced as an assembly after an internal structural leak.
Use Cases: It is used for cooling and heating duties on merchant ships, passenger vessels, offshore units or other vessel types where this equipment category is fitted.
Datasheet
Vahterus PSHE M Series unverified
Model Family
PSHE M
Heat Exchanger Type
plate_heat_exchanger
Common Failures & Inspection Points
  • Fouling on the heat-transfer surfaces from scale, sludge, biological growth, or oil contamination reduces thermal performance and appears as rising outlet temperature or reduced temperature approach
  • Gasket, seal, tube, or plate leakage caused by ageing, corrosion, or mechanical damage can allow external leakage or cross-contamination between circuits
  • Restricted flow from debris or deposits raises differential pressure and can reduce downstream flow
  • Corrosion or erosion of wetted surfaces caused by unsuitable water chemistry, velocity, or material attack can produce pinhole leakage and contamination
  • Loose covers, plate packs, or connections after maintenance can cause leakage, unstable temperatures, or loss of system pressure
Service: Inspect for external leakage, corrosion, abnormal temperature difference, flow restriction, and evidence of cross-contamination. Trend inlet and outlet temperatures and differential pressure where instruments are fitted, clean the heat-transfer surfaces using an approved method, and verify tightening or assembly against the manufacturer documentation.
Spare Parts: Keep the applicable gasket or seal set, connection seals, and any model-specific plate, tube, or fastening items recommended by the manufacturer. For the exact spare quantities and part numbers, refer to the manufacturer documentation.
Use Cases: Used on merchant ships, offshore vessels, passenger ships, fishing vessels, and workboats wherever machinery or process fluids require controlled heating or cooling.
Datasheet
Vahterus PSHE M 200kW Central cooling unverified
Model Family
PSHE M
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
200
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet
Vahterus PSHE M 200kW FW cooling unverified
Model Family
PSHE M
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
200
Application
FW cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Heat-transfer surface fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Seal, gasket, braze or tube leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate or tube corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked flow passages caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame, cover or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or covers, port connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with installed materials and deposits. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or cover seals, selected spare plates or approved tube-repair materials as applicable, port seals and manufacturer-recommended corrosion-protection parts. Brazed units are normally replaced as an assembly after an internal structural leak.
Use Cases: It is used for cooling and heating duties on merchant ships, passenger vessels, offshore units or other vessel types where this equipment category is fitted.
Datasheet
Vahterus PSHE M 500kW Central cooling unverified
Model Family
PSHE M
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
500
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet
Vahterus PSHE M 500kW FW cooling unverified
Model Family
PSHE M
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
500
Application
FW cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Heat-transfer surface fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Seal, gasket, braze or tube leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate or tube corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked flow passages caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame, cover or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or covers, port connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with installed materials and deposits. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or cover seals, selected spare plates or approved tube-repair materials as applicable, port seals and manufacturer-recommended corrosion-protection parts. Brazed units are normally replaced as an assembly after an internal structural leak.
Use Cases: It is used for cooling and heating duties on merchant ships, passenger vessels, offshore units or other vessel types where this equipment category is fitted.
Datasheet
Vahterus PSHE M 1000kW Central cooling unverified
Model Family
PSHE M
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
1000
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet
Vahterus PSHE M 1000kW FW cooling unverified
Model Family
PSHE M
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
1000
Application
FW cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Heat-transfer surface fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Seal, gasket, braze or tube leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate or tube corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked flow passages caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame, cover or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or covers, port connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with installed materials and deposits. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or cover seals, selected spare plates or approved tube-repair materials as applicable, port seals and manufacturer-recommended corrosion-protection parts. Brazed units are normally replaced as an assembly after an internal structural leak.
Use Cases: It is used for cooling and heating duties on merchant ships, passenger vessels, offshore units or other vessel types where this equipment category is fitted.
Datasheet
Vahterus PSHE M 2000kW Central cooling unverified
Model Family
PSHE M
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
2000
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet
Vahterus PSHE M 2000kW FW cooling unverified
Model Family
PSHE M
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
2000
Application
FW cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Heat-transfer surface fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Seal, gasket, braze or tube leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate or tube corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked flow passages caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame, cover or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or covers, port connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with installed materials and deposits. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or cover seals, selected spare plates or approved tube-repair materials as applicable, port seals and manufacturer-recommended corrosion-protection parts. Brazed units are normally replaced as an assembly after an internal structural leak.
Use Cases: It is used for cooling and heating duties on merchant ships, passenger vessels, offshore units or other vessel types where this equipment category is fitted.
Datasheet
Vahterus PSHE L Series unverified
Model Family
PSHE L
Heat Exchanger Type
plate_heat_exchanger
Common Failures & Inspection Points
  • Fouling on the heat-transfer surfaces from scale, sludge, biological growth, or oil contamination reduces thermal performance and appears as rising outlet temperature or reduced temperature approach
  • Gasket, seal, tube, or plate leakage caused by ageing, corrosion, or mechanical damage can allow external leakage or cross-contamination between circuits
  • Restricted flow from debris or deposits raises differential pressure and can reduce downstream flow
  • Corrosion or erosion of wetted surfaces caused by unsuitable water chemistry, velocity, or material attack can produce pinhole leakage and contamination
  • Loose covers, plate packs, or connections after maintenance can cause leakage, unstable temperatures, or loss of system pressure
Service: Inspect for external leakage, corrosion, abnormal temperature difference, flow restriction, and evidence of cross-contamination. Trend inlet and outlet temperatures and differential pressure where instruments are fitted, clean the heat-transfer surfaces using an approved method, and verify tightening or assembly against the manufacturer documentation.
Spare Parts: Keep the applicable gasket or seal set, connection seals, and any model-specific plate, tube, or fastening items recommended by the manufacturer. For the exact spare quantities and part numbers, refer to the manufacturer documentation.
Use Cases: Used on merchant ships, offshore vessels, passenger ships, fishing vessels, and workboats wherever machinery or process fluids require controlled heating or cooling.
Datasheet
Vahterus PSHE L 500kW Central cooling unverified
Model Family
PSHE L
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
500
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet
Vahterus PSHE L 500kW Jacket water cooling unverified
Model Family
PSHE L
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
500
Application
Jacket water cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet
Vahterus PSHE L 1000kW Central cooling unverified
Model Family
PSHE L
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
1000
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet
Vahterus PSHE L 1000kW Jacket water cooling unverified
Model Family
PSHE L
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
1000
Application
Jacket water cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet
Vahterus PSHE L 2000kW Central cooling unverified
Model Family
PSHE L
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
2000
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet
Vahterus PSHE L 2000kW Jacket water cooling unverified
Model Family
PSHE L
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
2000
Application
Jacket water cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet
Vahterus PSHE L 3000kW Central cooling unverified
Model Family
PSHE L
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
3000
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet
Vahterus PSHE L 3000kW Jacket water cooling unverified
Model Family
PSHE L
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
3000
Application
Jacket water cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet
Vahterus PSHE XL Series unverified
Model Family
PSHE XL
Heat Exchanger Type
plate_heat_exchanger
Common Failures & Inspection Points
  • Fouling on the heat-transfer surfaces from scale, sludge, biological growth, or oil contamination reduces thermal performance and appears as rising outlet temperature or reduced temperature approach
  • Gasket, seal, tube, or plate leakage caused by ageing, corrosion, or mechanical damage can allow external leakage or cross-contamination between circuits
  • Restricted flow from debris or deposits raises differential pressure and can reduce downstream flow
  • Corrosion or erosion of wetted surfaces caused by unsuitable water chemistry, velocity, or material attack can produce pinhole leakage and contamination
  • Loose covers, plate packs, or connections after maintenance can cause leakage, unstable temperatures, or loss of system pressure
Service: Inspect for external leakage, corrosion, abnormal temperature difference, flow restriction, and evidence of cross-contamination. Trend inlet and outlet temperatures and differential pressure where instruments are fitted, clean the heat-transfer surfaces using an approved method, and verify tightening or assembly against the manufacturer documentation.
Spare Parts: Keep the applicable gasket or seal set, connection seals, and any model-specific plate, tube, or fastening items recommended by the manufacturer. For the exact spare quantities and part numbers, refer to the manufacturer documentation.
Use Cases: Used on merchant ships, offshore vessels, passenger ships, fishing vessels, and workboats wherever machinery or process fluids require controlled heating or cooling.
Datasheet
Vahterus PSHE XL 1000kW Central cooling unverified
Model Family
PSHE XL
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
1000
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet
Vahterus PSHE XL 2000kW Central cooling unverified
Model Family
PSHE XL
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
2000
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet
Vahterus PSHE XL 3000kW Central cooling unverified
Model Family
PSHE XL
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
3000
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet
Vahterus PSHE XL 5000kW Central cooling unverified
Model Family
PSHE XL
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
5000
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet
Vahterus PSHE C Series unverified
Model Family
PSHE C
Heat Exchanger Type
plate_heat_exchanger
Common Failures & Inspection Points
  • Fouling on the heat-transfer surfaces from scale, sludge, biological growth, or oil contamination reduces thermal performance and appears as rising outlet temperature or reduced temperature approach
  • Gasket, seal, tube, or plate leakage caused by ageing, corrosion, or mechanical damage can allow external leakage or cross-contamination between circuits
  • Restricted flow from debris or deposits raises differential pressure and can reduce downstream flow
  • Corrosion or erosion of wetted surfaces caused by unsuitable water chemistry, velocity, or material attack can produce pinhole leakage and contamination
  • Loose covers, plate packs, or connections after maintenance can cause leakage, unstable temperatures, or loss of system pressure
Service: Inspect for external leakage, corrosion, abnormal temperature difference, flow restriction, and evidence of cross-contamination. Trend inlet and outlet temperatures and differential pressure where instruments are fitted, clean the heat-transfer surfaces using an approved method, and verify tightening or assembly against the manufacturer documentation.
Spare Parts: Keep the applicable gasket or seal set, connection seals, and any model-specific plate, tube, or fastening items recommended by the manufacturer. For the exact spare quantities and part numbers, refer to the manufacturer documentation.
Use Cases: Used on merchant ships, offshore vessels, passenger ships, fishing vessels, and workboats wherever machinery or process fluids require controlled heating or cooling.
Datasheet
Vahterus PSHE C 200kW Fuel heating unverified
Model Family
PSHE C
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
200
Application
Fuel heating
Material
stainless_steel_316
Common Failures & Inspection Points
  • Heat-transfer surface fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Seal, gasket, braze or tube leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate or tube corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked flow passages caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame, cover or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or covers, port connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with installed materials and deposits. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or cover seals, selected spare plates or approved tube-repair materials as applicable, port seals and manufacturer-recommended corrosion-protection parts. Brazed units are normally replaced as an assembly after an internal structural leak.
Use Cases: It is used for cooling and heating duties on merchant ships, passenger vessels, offshore units or other vessel types where this equipment category is fitted.
Datasheet
Vahterus Vahterus PSHE C 200kW Cargo heating
Vahterus PSHE C 200kW Cargo heating unverified
Model Family
PSHE C
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
200
Application
Cargo heating
Material
stainless_steel_316
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet
Vahterus PSHE C 500kW Fuel heating unverified
Model Family
PSHE C
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
500
Application
Fuel heating
Material
stainless_steel_316
Common Failures & Inspection Points
  • Heat-transfer surface fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Seal, gasket, braze or tube leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate or tube corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked flow passages caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame, cover or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or covers, port connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with installed materials and deposits. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or cover seals, selected spare plates or approved tube-repair materials as applicable, port seals and manufacturer-recommended corrosion-protection parts. Brazed units are normally replaced as an assembly after an internal structural leak.
Use Cases: It is used for cooling and heating duties on merchant ships, passenger vessels, offshore units or other vessel types where this equipment category is fitted.
Datasheet
Vahterus PSHE C 500kW Cargo heating unverified
Model Family
PSHE C
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
500
Application
Cargo heating
Material
stainless_steel_316
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet
Vahterus PSHE C 1000kW Fuel heating unverified
Model Family
PSHE C
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
1000
Application
Fuel heating
Material
stainless_steel_316
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet
Vahterus PSHE C 1000kW Cargo heating unverified
Model Family
PSHE C
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
1000
Application
Cargo heating
Material
stainless_steel_316
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet
Vahterus Oy PSHE 3HH-236/2/2, PSHE 5WH-106/1/1
PSHE 3HH-236/2/2, PSHE 5WH-106/1/1
Model Number
TAP000032V
Datasheet

Funke

39
Funke FP 04 Series unverified
Model Family
FP 04
Heat Exchanger Type
plate_heat_exchanger
Common Failures & Inspection Points
  • Plate fouling or scaling raises differential pressure and reduces heat-transfer performance
  • Gasket ageing, displacement or chemical attack causes external leakage at the plate pack
  • Plate corrosion, erosion or cracking causes internal cross-contamination between fluid circuits
  • Incorrect plate sequence or compression after overhaul causes immediate leakage or poor thermal performance
  • Blocked upstream strainers reduce flow and create abnormal inlet-to-outlet temperatures
Service: Trend temperatures and differential pressure, inspect the plate pack for leakage and open it when condition or maintenance planning requires. Check plates for deposits, corrosion and deformation and gaskets for hardening or displacement. Reassemble in the documented sequence. Exact tightening dimension and cleaning limits require manufacturer documentation.
Spare Parts: Carry the correct gasket type, representative spare plates, port seals, compatible cleaning materials and associated strainer elements.
Use Cases: Central cooling, jacket-water cooling, oil cooling, HVAC, heating and process duties.
Datasheet
Funke FP 04 50kW LO cooling unverified
Model Family
FP 04
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
50
Application
LO cooling
Material
stainless_steel_316
Datasheet
Funke FP 04 100kW LO cooling unverified
Model Family
FP 04
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
100
Application
LO cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Plate-channel fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Gasket, braze or connection leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked channels caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or external connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with plate and sealing materials. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or connection seals, selected spare plates for openable units, filters and manufacturer-recommended service parts. Brazed units are normally replaced as an assembly after an internal structural leak. Verify materials and dimensions against the exact serial number.
Use Cases: Central cooling, lubricating-oil cooling, freshwater heating, refrigeration and other liquid-to-liquid heat-transfer duties on ships and offshore units.
Datasheet
Funke FP 04 200kW LO cooling unverified
Model Family
FP 04
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
200
Application
LO cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Plate-channel fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Gasket, braze or connection leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked channels caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or external connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with plate and sealing materials. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or connection seals, selected spare plates for openable units, filters and manufacturer-recommended service parts. Brazed units are normally replaced as an assembly after an internal structural leak. Verify materials and dimensions against the exact serial number.
Use Cases: Central cooling, lubricating-oil cooling, freshwater heating, refrigeration and other liquid-to-liquid heat-transfer duties on ships and offshore units.
Datasheet
Funke FP 08 Series unverified
Model Family
FP 08
Heat Exchanger Type
plate_heat_exchanger
Common Failures & Inspection Points
  • Plate fouling or scaling raises differential pressure and reduces heat-transfer performance
  • Gasket ageing, displacement or chemical attack causes external leakage at the plate pack
  • Plate corrosion, erosion or cracking causes internal cross-contamination between fluid circuits
  • Incorrect plate sequence or compression after overhaul causes immediate leakage or poor thermal performance
  • Blocked upstream strainers reduce flow and create abnormal inlet-to-outlet temperatures
Service: Trend temperatures and differential pressure, inspect the plate pack for leakage and open it when condition or maintenance planning requires. Check plates for deposits, corrosion and deformation and gaskets for hardening or displacement. Reassemble in the documented sequence. Exact tightening dimension and cleaning limits require manufacturer documentation.
Spare Parts: Carry the correct gasket type, representative spare plates, port seals, compatible cleaning materials and associated strainer elements.
Use Cases: Central cooling, jacket-water cooling, oil cooling, HVAC, heating and process duties.
Datasheet
Funke FP 08 100kW LO cooling unverified
Model Family
FP 08
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
100
Application
LO cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Plate-channel fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Gasket, braze or connection leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked channels caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or external connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with plate and sealing materials. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or connection seals, selected spare plates for openable units, filters and manufacturer-recommended service parts. Brazed units are normally replaced as an assembly after an internal structural leak. Verify materials and dimensions against the exact serial number.
Use Cases: Central cooling, lubricating-oil cooling, freshwater heating, refrigeration and other liquid-to-liquid heat-transfer duties on ships and offshore units.
Datasheet
Funke FP 08 100kW FW cooling unverified
Model Family
FP 08
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
100
Application
FW cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Plate-channel fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Gasket, braze or connection leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked channels caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or external connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with plate and sealing materials. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or connection seals, selected spare plates for openable units, filters and manufacturer-recommended service parts. Brazed units are normally replaced as an assembly after an internal structural leak. Verify materials and dimensions against the exact serial number.
Use Cases: Central cooling, lubricating-oil cooling, freshwater heating, refrigeration and other liquid-to-liquid heat-transfer duties on ships and offshore units.
Datasheet
Funke FP 08 200kW LO cooling unverified
Model Family
FP 08
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
200
Application
LO cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Plate-channel fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Gasket, braze or connection leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked channels caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or external connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with plate and sealing materials. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or connection seals, selected spare plates for openable units, filters and manufacturer-recommended service parts. Brazed units are normally replaced as an assembly after an internal structural leak. Verify materials and dimensions against the exact serial number.
Use Cases: Central cooling, lubricating-oil cooling, freshwater heating, refrigeration and other liquid-to-liquid heat-transfer duties on ships and offshore units.
Datasheet
Funke FP 08 200kW FW cooling unverified
Model Family
FP 08
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
200
Application
FW cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Plate-channel fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Gasket, braze or connection leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked channels caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or external connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with plate and sealing materials. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or connection seals, selected spare plates for openable units, filters and manufacturer-recommended service parts. Brazed units are normally replaced as an assembly after an internal structural leak. Verify materials and dimensions against the exact serial number.
Use Cases: Central cooling, lubricating-oil cooling, freshwater heating, refrigeration and other liquid-to-liquid heat-transfer duties on ships and offshore units.
Datasheet
Funke FP 08 500kW LO cooling unverified
Model Family
FP 08
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
500
Application
LO cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Plate-channel fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Gasket, braze or connection leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked channels caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or external connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with plate and sealing materials. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or connection seals, selected spare plates for openable units, filters and manufacturer-recommended service parts. Brazed units are normally replaced as an assembly after an internal structural leak. Verify materials and dimensions against the exact serial number.
Use Cases: Central cooling, lubricating-oil cooling, freshwater heating, refrigeration and other liquid-to-liquid heat-transfer duties on ships and offshore units.
Datasheet
Funke FP 08 500kW FW cooling unverified
Model Family
FP 08
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
500
Application
FW cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Plate-channel fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Gasket, braze or connection leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked channels caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or external connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with plate and sealing materials. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or connection seals, selected spare plates for openable units, filters and manufacturer-recommended service parts. Brazed units are normally replaced as an assembly after an internal structural leak. Verify materials and dimensions against the exact serial number.
Use Cases: Central cooling, lubricating-oil cooling, freshwater heating, refrigeration and other liquid-to-liquid heat-transfer duties on ships and offshore units.
Datasheet
Funke FP 14 Series unverified
Model Family
FP 14
Heat Exchanger Type
plate_heat_exchanger
Common Failures & Inspection Points
  • Plate fouling or scaling raises differential pressure and reduces heat-transfer performance
  • Gasket ageing, displacement or chemical attack causes external leakage at the plate pack
  • Plate corrosion, erosion or cracking causes internal cross-contamination between fluid circuits
  • Incorrect plate sequence or compression after overhaul causes immediate leakage or poor thermal performance
  • Blocked upstream strainers reduce flow and create abnormal inlet-to-outlet temperatures
Service: Trend temperatures and differential pressure, inspect the plate pack for leakage and open it when condition or maintenance planning requires. Check plates for deposits, corrosion and deformation and gaskets for hardening or displacement. Reassemble in the documented sequence. Exact tightening dimension and cleaning limits require manufacturer documentation.
Spare Parts: Carry the correct gasket type, representative spare plates, port seals, compatible cleaning materials and associated strainer elements.
Use Cases: Central cooling, jacket-water cooling, oil cooling, HVAC, heating and process duties.
Datasheet
Funke FP 14 200kW FW cooling unverified
Model Family
FP 14
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
200
Application
FW cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Plate-channel fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Gasket, braze or connection leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked channels caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or external connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with plate and sealing materials. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or connection seals, selected spare plates for openable units, filters and manufacturer-recommended service parts. Brazed units are normally replaced as an assembly after an internal structural leak. Verify materials and dimensions against the exact serial number.
Use Cases: Central cooling, lubricating-oil cooling, freshwater heating, refrigeration and other liquid-to-liquid heat-transfer duties on ships and offshore units.
Datasheet
Funke FP 14 200kW Central cooling unverified
Model Family
FP 14
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
200
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Heat-transfer surface fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Seal, gasket, braze or tube leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate or tube corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked flow passages caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame, cover or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or covers, port connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with installed materials and deposits. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or cover seals, selected spare plates or approved tube-repair materials as applicable, port seals and manufacturer-recommended corrosion-protection parts. Brazed units are normally replaced as an assembly after an internal structural leak.
Use Cases: It is used for cooling and heating duties on merchant ships, passenger vessels, offshore units or other vessel types where this equipment category is fitted.
Datasheet
Funke FP 14 500kW FW cooling unverified
Model Family
FP 14
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
500
Application
FW cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Plate-channel fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Gasket, braze or connection leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked channels caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or external connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with plate and sealing materials. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or connection seals, selected spare plates for openable units, filters and manufacturer-recommended service parts. Brazed units are normally replaced as an assembly after an internal structural leak. Verify materials and dimensions against the exact serial number.
Use Cases: Central cooling, lubricating-oil cooling, freshwater heating, refrigeration and other liquid-to-liquid heat-transfer duties on ships and offshore units.
Datasheet
Funke FP 14 500kW Central cooling unverified
Model Family
FP 14
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
500
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Heat-transfer surface fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Seal, gasket, braze or tube leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate or tube corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked flow passages caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame, cover or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or covers, port connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with installed materials and deposits. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or cover seals, selected spare plates or approved tube-repair materials as applicable, port seals and manufacturer-recommended corrosion-protection parts. Brazed units are normally replaced as an assembly after an internal structural leak.
Use Cases: It is used for cooling and heating duties on merchant ships, passenger vessels, offshore units or other vessel types where this equipment category is fitted.
Datasheet
Funke FP 14 1000kW FW cooling unverified
Model Family
FP 14
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
1000
Application
FW cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Plate-channel fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Gasket, braze or connection leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked channels caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or external connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with plate and sealing materials. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or connection seals, selected spare plates for openable units, filters and manufacturer-recommended service parts. Brazed units are normally replaced as an assembly after an internal structural leak. Verify materials and dimensions against the exact serial number.
Use Cases: Central cooling, lubricating-oil cooling, freshwater heating, refrigeration and other liquid-to-liquid heat-transfer duties on ships and offshore units.
Datasheet
Funke FP 14 1000kW Central cooling unverified
Model Family
FP 14
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
1000
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Heat-transfer surface fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Seal, gasket, braze or tube leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate or tube corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked flow passages caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame, cover or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or covers, port connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with installed materials and deposits. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or cover seals, selected spare plates or approved tube-repair materials as applicable, port seals and manufacturer-recommended corrosion-protection parts. Brazed units are normally replaced as an assembly after an internal structural leak.
Use Cases: It is used for cooling and heating duties on merchant ships, passenger vessels, offshore units or other vessel types where this equipment category is fitted.
Datasheet
Funke FP 20 Series unverified
Model Family
FP 20
Heat Exchanger Type
plate_heat_exchanger
Common Failures & Inspection Points
  • Plate fouling or scaling raises differential pressure and reduces heat-transfer performance
  • Gasket ageing, displacement or chemical attack causes external leakage at the plate pack
  • Plate corrosion, erosion or cracking causes internal cross-contamination between fluid circuits
  • Incorrect plate sequence or compression after overhaul causes immediate leakage or poor thermal performance
  • Blocked upstream strainers reduce flow and create abnormal inlet-to-outlet temperatures
Service: Trend temperatures and differential pressure, inspect the plate pack for leakage and open it when condition or maintenance planning requires. Check plates for deposits, corrosion and deformation and gaskets for hardening or displacement. Reassemble in the documented sequence. Exact tightening dimension and cleaning limits require manufacturer documentation.
Spare Parts: Carry the correct gasket type, representative spare plates, port seals, compatible cleaning materials and associated strainer elements.
Use Cases: Central cooling, jacket-water cooling, oil cooling, HVAC, heating and process duties.
Datasheet
Funke FP 20 500kW Central cooling unverified
Model Family
FP 20
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
500
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Heat-transfer surface fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Seal, gasket, braze or tube leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate or tube corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked flow passages caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame, cover or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or covers, port connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with installed materials and deposits. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or cover seals, selected spare plates or approved tube-repair materials as applicable, port seals and manufacturer-recommended corrosion-protection parts. Brazed units are normally replaced as an assembly after an internal structural leak.
Use Cases: It is used for cooling and heating duties on merchant ships, passenger vessels, offshore units or other vessel types where this equipment category is fitted.
Datasheet
Funke FP 20 1000kW Central cooling unverified
Model Family
FP 20
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
1000
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Heat-transfer surface fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Seal, gasket, braze or tube leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate or tube corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked flow passages caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame, cover or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or covers, port connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with installed materials and deposits. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or cover seals, selected spare plates or approved tube-repair materials as applicable, port seals and manufacturer-recommended corrosion-protection parts. Brazed units are normally replaced as an assembly after an internal structural leak.
Use Cases: It is used for cooling and heating duties on merchant ships, passenger vessels, offshore units or other vessel types where this equipment category is fitted.
Datasheet
Funke FP 20 2000kW Central cooling unverified
Model Family
FP 20
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
2000
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Heat-transfer surface fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Seal, gasket, braze or tube leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate or tube corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked flow passages caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame, cover or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or covers, port connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with installed materials and deposits. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or cover seals, selected spare plates or approved tube-repair materials as applicable, port seals and manufacturer-recommended corrosion-protection parts. Brazed units are normally replaced as an assembly after an internal structural leak.
Use Cases: It is used for cooling and heating duties on merchant ships, passenger vessels, offshore units or other vessel types where this equipment category is fitted.
Datasheet
Funke FP 31 Series unverified
Model Family
FP 31
Heat Exchanger Type
plate_heat_exchanger
Common Failures & Inspection Points
  • Plate fouling or scaling raises differential pressure and reduces heat-transfer performance
  • Gasket ageing, displacement or chemical attack causes external leakage at the plate pack
  • Plate corrosion, erosion or cracking causes internal cross-contamination between fluid circuits
  • Incorrect plate sequence or compression after overhaul causes immediate leakage or poor thermal performance
  • Blocked upstream strainers reduce flow and create abnormal inlet-to-outlet temperatures
Service: Trend temperatures and differential pressure, inspect the plate pack for leakage and open it when condition or maintenance planning requires. Check plates for deposits, corrosion and deformation and gaskets for hardening or displacement. Reassemble in the documented sequence. Exact tightening dimension and cleaning limits require manufacturer documentation.
Spare Parts: Carry the correct gasket type, representative spare plates, port seals, compatible cleaning materials and associated strainer elements.
Use Cases: Central cooling, jacket-water cooling, oil cooling, HVAC, heating and process duties.
Datasheet
Funke FP 31 1000kW Central cooling unverified
Model Family
FP 31
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
1000
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Heat-transfer surface fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Seal, gasket, braze or tube leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate or tube corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked flow passages caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame, cover or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or covers, port connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with installed materials and deposits. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or cover seals, selected spare plates or approved tube-repair materials as applicable, port seals and manufacturer-recommended corrosion-protection parts. Brazed units are normally replaced as an assembly after an internal structural leak.
Use Cases: It is used for cooling and heating duties on merchant ships, passenger vessels, offshore units or other vessel types where this equipment category is fitted.
Datasheet
Funke FP 31 1000kW Jacket water cooling unverified
Model Family
FP 31
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
1000
Application
Jacket water cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet
Funke FP 31 2000kW Central cooling unverified
Model Family
FP 31
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
2000
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Heat-transfer surface fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Seal, gasket, braze or tube leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate or tube corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked flow passages caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame, cover or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or covers, port connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with installed materials and deposits. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or cover seals, selected spare plates or approved tube-repair materials as applicable, port seals and manufacturer-recommended corrosion-protection parts. Brazed units are normally replaced as an assembly after an internal structural leak.
Use Cases: It is used for cooling and heating duties on merchant ships, passenger vessels, offshore units or other vessel types where this equipment category is fitted.
Datasheet
Funke FP 31 2000kW Jacket water cooling unverified
Model Family
FP 31
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
2000
Application
Jacket water cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet
Funke FP 31 3000kW Central cooling unverified
Model Family
FP 31
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
3000
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Heat-transfer surface fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Seal, gasket, braze or tube leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate or tube corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked flow passages caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame, cover or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or covers, port connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with installed materials and deposits. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or cover seals, selected spare plates or approved tube-repair materials as applicable, port seals and manufacturer-recommended corrosion-protection parts. Brazed units are normally replaced as an assembly after an internal structural leak.
Use Cases: It is used for cooling and heating duties on merchant ships, passenger vessels, offshore units or other vessel types where this equipment category is fitted.
Datasheet
Funke FP 31 3000kW Jacket water cooling unverified
Model Family
FP 31
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
3000
Application
Jacket water cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet
Funke FP 40 Series unverified
Model Family
FP 40
Heat Exchanger Type
plate_heat_exchanger
Common Failures & Inspection Points
  • Plate fouling or scaling raises differential pressure and reduces heat-transfer performance
  • Gasket ageing, displacement or chemical attack causes external leakage at the plate pack
  • Plate corrosion, erosion or cracking causes internal cross-contamination between fluid circuits
  • Incorrect plate sequence or compression after overhaul causes immediate leakage or poor thermal performance
  • Blocked upstream strainers reduce flow and create abnormal inlet-to-outlet temperatures
Service: Trend temperatures and differential pressure, inspect the plate pack for leakage and open it when condition or maintenance planning requires. Check plates for deposits, corrosion and deformation and gaskets for hardening or displacement. Reassemble in the documented sequence. Exact tightening dimension and cleaning limits require manufacturer documentation.
Spare Parts: Carry the correct gasket type, representative spare plates, port seals, compatible cleaning materials and associated strainer elements.
Use Cases: Central cooling, jacket-water cooling, oil cooling, HVAC, heating and process duties.
Datasheet
Funke FP 40 2000kW Central cooling unverified
Model Family
FP 40
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
2000
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Heat-transfer surface fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Seal, gasket, braze or tube leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate or tube corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked flow passages caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame, cover or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or covers, port connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with installed materials and deposits. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or cover seals, selected spare plates or approved tube-repair materials as applicable, port seals and manufacturer-recommended corrosion-protection parts. Brazed units are normally replaced as an assembly after an internal structural leak.
Use Cases: It is used for cooling and heating duties on merchant ships, passenger vessels, offshore units or other vessel types where this equipment category is fitted.
Datasheet
Funke FP 40 3000kW Central cooling unverified
Model Family
FP 40
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
3000
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Heat-transfer surface fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Seal, gasket, braze or tube leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate or tube corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked flow passages caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame, cover or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or covers, port connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with installed materials and deposits. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or cover seals, selected spare plates or approved tube-repair materials as applicable, port seals and manufacturer-recommended corrosion-protection parts. Brazed units are normally replaced as an assembly after an internal structural leak.
Use Cases: It is used for cooling and heating duties on merchant ships, passenger vessels, offshore units or other vessel types where this equipment category is fitted.
Datasheet
Funke FP 40 5000kW Central cooling unverified
Model Family
FP 40
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
5000
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Heat-transfer surface fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Seal, gasket, braze or tube leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate or tube corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked flow passages caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame, cover or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or covers, port connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with installed materials and deposits. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or cover seals, selected spare plates or approved tube-repair materials as applicable, port seals and manufacturer-recommended corrosion-protection parts. Brazed units are normally replaced as an assembly after an internal structural leak.
Use Cases: It is used for cooling and heating duties on merchant ships, passenger vessels, offshore units or other vessel types where this equipment category is fitted.
Datasheet
Funke FP 62 Series unverified
Model Family
FP 62
Heat Exchanger Type
plate_heat_exchanger
Common Failures & Inspection Points
  • Plate fouling or scaling raises differential pressure and reduces heat-transfer performance
  • Gasket ageing, displacement or chemical attack causes external leakage at the plate pack
  • Plate corrosion, erosion or cracking causes internal cross-contamination between fluid circuits
  • Incorrect plate sequence or compression after overhaul causes immediate leakage or poor thermal performance
  • Blocked upstream strainers reduce flow and create abnormal inlet-to-outlet temperatures
Service: Trend temperatures and differential pressure, inspect the plate pack for leakage and open it when condition or maintenance planning requires. Check plates for deposits, corrosion and deformation and gaskets for hardening or displacement. Reassemble in the documented sequence. Exact tightening dimension and cleaning limits require manufacturer documentation.
Spare Parts: Carry the correct gasket type, representative spare plates, port seals, compatible cleaning materials and associated strainer elements.
Use Cases: Central cooling, jacket-water cooling, oil cooling, HVAC, heating and process duties.
Datasheet
Funke FP 62 3000kW Central cooling unverified
Model Family
FP 62
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
3000
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Heat-transfer surface fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Seal, gasket, braze or tube leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate or tube corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked flow passages caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame, cover or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or covers, port connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with installed materials and deposits. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or cover seals, selected spare plates or approved tube-repair materials as applicable, port seals and manufacturer-recommended corrosion-protection parts. Brazed units are normally replaced as an assembly after an internal structural leak.
Use Cases: It is used for cooling and heating duties on merchant ships, passenger vessels, offshore units or other vessel types where this equipment category is fitted.
Datasheet
Funke FP 62 5000kW Central cooling unverified
Model Family
FP 62
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
5000
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Heat-transfer surface fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Seal, gasket, braze or tube leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate or tube corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked flow passages caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame, cover or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or covers, port connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with installed materials and deposits. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or cover seals, selected spare plates or approved tube-repair materials as applicable, port seals and manufacturer-recommended corrosion-protection parts. Brazed units are normally replaced as an assembly after an internal structural leak.
Use Cases: It is used for cooling and heating duties on merchant ships, passenger vessels, offshore units or other vessel types where this equipment category is fitted.
Datasheet
Funke FP 80 Series unverified
Model Family
FP 80
Heat Exchanger Type
plate_heat_exchanger
Common Failures & Inspection Points
  • Plate fouling or scaling raises differential pressure and reduces heat-transfer performance
  • Gasket ageing, displacement or chemical attack causes external leakage at the plate pack
  • Plate corrosion, erosion or cracking causes internal cross-contamination between fluid circuits
  • Incorrect plate sequence or compression after overhaul causes immediate leakage or poor thermal performance
  • Blocked upstream strainers reduce flow and create abnormal inlet-to-outlet temperatures
Service: Trend temperatures and differential pressure, inspect the plate pack for leakage and open it when condition or maintenance planning requires. Check plates for deposits, corrosion and deformation and gaskets for hardening or displacement. Reassemble in the documented sequence. Exact tightening dimension and cleaning limits require manufacturer documentation.
Spare Parts: Carry the correct gasket type, representative spare plates, port seals, compatible cleaning materials and associated strainer elements.
Use Cases: Central cooling, jacket-water cooling, oil cooling, HVAC, heating and process duties.
Datasheet
Funke FP 80 3000kW Central cooling unverified
Model Family
FP 80
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
3000
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Heat-transfer surface fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Seal, gasket, braze or tube leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate or tube corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked flow passages caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame, cover or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or covers, port connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with installed materials and deposits. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or cover seals, selected spare plates or approved tube-repair materials as applicable, port seals and manufacturer-recommended corrosion-protection parts. Brazed units are normally replaced as an assembly after an internal structural leak.
Use Cases: It is used for cooling and heating duties on merchant ships, passenger vessels, offshore units or other vessel types where this equipment category is fitted.
Datasheet
Funke FP 80 5000kW Central cooling unverified
Model Family
FP 80
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
5000
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Heat-transfer surface fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Seal, gasket, braze or tube leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate or tube corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked flow passages caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame, cover or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or covers, port connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with installed materials and deposits. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or cover seals, selected spare plates or approved tube-repair materials as applicable, port seals and manufacturer-recommended corrosion-protection parts. Brazed units are normally replaced as an assembly after an internal structural leak.
Use Cases: It is used for cooling and heating duties on merchant ships, passenger vessels, offshore units or other vessel types where this equipment category is fitted.
Datasheet

Hisaka

39
Hisaka UX-01 Series unverified
Model Family
UX-01
Heat Exchanger Type
plate_heat_exchanger
Common Failures & Inspection Points
  • Plate fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Gasket deterioration caused by age, temperature, chemicals or incorrect compression, resulting in external leakage or cross-leakage paths
  • Plate corrosion or pinholing caused by incompatible fluid chemistry, resulting in contamination between circuits
  • Blocked channels caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame or tightening problems caused by incorrect assembly or piping stress, resulting in leakage and uneven gasket loading
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect the frame, tightening arrangement, port connections and visible gasket edges for leakage or distortion. Clean plates using methods compatible with plate and gasket materials and inspect individual plates for corrosion, deformation or cracking when opened. Confirm plate order and orientation during reassembly. Support connected piping independently so nozzle loads are not transferred into the frame. Refer to the manufacturer documentation for the exact tightening dimension, gasket material, cleaning chemistry and pressure-test criteria.
Spare Parts: Keep a set of model-correct plate gaskets, selected spare plates, port gaskets and any special frame sealing components recommended by the manufacturer. For critical coolers, enough plates and gaskets to recover from localized damage can reduce downtime. Verify materials and plate pattern against the exact serial number.
Use Cases: Central cooling, lubricating-oil cooling, freshwater heating and other liquid-to-liquid heat-transfer duties on ships and offshore units.
Datasheet
Hisaka UX-01 50kW LO cooling unverified
Model Family
UX-01
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
50
Application
LO cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Plate-channel fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Gasket, braze or connection leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked channels caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or external connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with plate and sealing materials. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or connection seals, selected spare plates for openable units, filters and manufacturer-recommended service parts. Brazed units are normally replaced as an assembly after an internal structural leak. Verify materials and dimensions against the exact serial number.
Use Cases: Central cooling, lubricating-oil cooling, freshwater heating, refrigeration and other liquid-to-liquid heat-transfer duties on ships and offshore units.
Datasheet
Hisaka UX-01 100kW LO cooling unverified
Model Family
UX-01
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
100
Application
LO cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Plate-channel fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Gasket, braze or connection leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked channels caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or external connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with plate and sealing materials. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or connection seals, selected spare plates for openable units, filters and manufacturer-recommended service parts. Brazed units are normally replaced as an assembly after an internal structural leak. Verify materials and dimensions against the exact serial number.
Use Cases: Central cooling, lubricating-oil cooling, freshwater heating, refrigeration and other liquid-to-liquid heat-transfer duties on ships and offshore units.
Datasheet
Hisaka UX-01 200kW LO cooling unverified
Model Family
UX-01
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
200
Application
LO cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Plate-channel fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Gasket, braze or connection leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked channels caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or external connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with plate and sealing materials. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or connection seals, selected spare plates for openable units, filters and manufacturer-recommended service parts. Brazed units are normally replaced as an assembly after an internal structural leak. Verify materials and dimensions against the exact serial number.
Use Cases: Central cooling, lubricating-oil cooling, freshwater heating, refrigeration and other liquid-to-liquid heat-transfer duties on ships and offshore units.
Datasheet
Hisaka UX-10 Series unverified
Model Family
UX-10
Heat Exchanger Type
plate_heat_exchanger
Common Failures & Inspection Points
  • Plate fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Gasket deterioration caused by age, temperature, chemicals or incorrect compression, resulting in external leakage or cross-leakage paths
  • Plate corrosion or pinholing caused by incompatible fluid chemistry, resulting in contamination between circuits
  • Blocked channels caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame or tightening problems caused by incorrect assembly or piping stress, resulting in leakage and uneven gasket loading
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect the frame, tightening arrangement, port connections and visible gasket edges for leakage or distortion. Clean plates using methods compatible with plate and gasket materials and inspect individual plates for corrosion, deformation or cracking when opened. Confirm plate order and orientation during reassembly. Support connected piping independently so nozzle loads are not transferred into the frame. Refer to the manufacturer documentation for the exact tightening dimension, gasket material, cleaning chemistry and pressure-test criteria.
Spare Parts: Keep a set of model-correct plate gaskets, selected spare plates, port gaskets and any special frame sealing components recommended by the manufacturer. For critical coolers, enough plates and gaskets to recover from localized damage can reduce downtime. Verify materials and plate pattern against the exact serial number.
Use Cases: Central cooling, lubricating-oil cooling, freshwater heating and other liquid-to-liquid heat-transfer duties on ships and offshore units.
Datasheet
Hisaka UX-10 100kW LO cooling unverified
Model Family
UX-10
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
100
Application
LO cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Plate-channel fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Gasket, braze or connection leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked channels caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or external connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with plate and sealing materials. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or connection seals, selected spare plates for openable units, filters and manufacturer-recommended service parts. Brazed units are normally replaced as an assembly after an internal structural leak. Verify materials and dimensions against the exact serial number.
Use Cases: Central cooling, lubricating-oil cooling, freshwater heating, refrigeration and other liquid-to-liquid heat-transfer duties on ships and offshore units.
Datasheet
Hisaka UX-10 100kW FW cooling unverified
Model Family
UX-10
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
100
Application
FW cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Plate-channel fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Gasket, braze or connection leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked channels caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or external connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with plate and sealing materials. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or connection seals, selected spare plates for openable units, filters and manufacturer-recommended service parts. Brazed units are normally replaced as an assembly after an internal structural leak. Verify materials and dimensions against the exact serial number.
Use Cases: Central cooling, lubricating-oil cooling, freshwater heating, refrigeration and other liquid-to-liquid heat-transfer duties on ships and offshore units.
Datasheet
Hisaka UX-10 200kW LO cooling unverified
Model Family
UX-10
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
200
Application
LO cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Plate-channel fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Gasket, braze or connection leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked channels caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or external connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with plate and sealing materials. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or connection seals, selected spare plates for openable units, filters and manufacturer-recommended service parts. Brazed units are normally replaced as an assembly after an internal structural leak. Verify materials and dimensions against the exact serial number.
Use Cases: Central cooling, lubricating-oil cooling, freshwater heating, refrigeration and other liquid-to-liquid heat-transfer duties on ships and offshore units.
Datasheet
Hisaka UX-10 200kW FW cooling unverified
Model Family
UX-10
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
200
Application
FW cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Plate-channel fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Gasket, braze or connection leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked channels caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or external connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with plate and sealing materials. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or connection seals, selected spare plates for openable units, filters and manufacturer-recommended service parts. Brazed units are normally replaced as an assembly after an internal structural leak. Verify materials and dimensions against the exact serial number.
Use Cases: Central cooling, lubricating-oil cooling, freshwater heating, refrigeration and other liquid-to-liquid heat-transfer duties on ships and offshore units.
Datasheet
Hisaka UX-10 500kW LO cooling unverified
Model Family
UX-10
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
500
Application
LO cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Plate-channel fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Gasket, braze or connection leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked channels caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or external connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with plate and sealing materials. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or connection seals, selected spare plates for openable units, filters and manufacturer-recommended service parts. Brazed units are normally replaced as an assembly after an internal structural leak. Verify materials and dimensions against the exact serial number.
Use Cases: Central cooling, lubricating-oil cooling, freshwater heating, refrigeration and other liquid-to-liquid heat-transfer duties on ships and offshore units.
Datasheet
Hisaka UX-10 500kW FW cooling unverified
Model Family
UX-10
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
500
Application
FW cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Plate-channel fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Gasket, braze or connection leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked channels caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or external connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with plate and sealing materials. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or connection seals, selected spare plates for openable units, filters and manufacturer-recommended service parts. Brazed units are normally replaced as an assembly after an internal structural leak. Verify materials and dimensions against the exact serial number.
Use Cases: Central cooling, lubricating-oil cooling, freshwater heating, refrigeration and other liquid-to-liquid heat-transfer duties on ships and offshore units.
Datasheet
Hisaka UX-20 Series unverified
Model Family
UX-20
Heat Exchanger Type
plate_heat_exchanger
Common Failures & Inspection Points
  • Plate fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Gasket deterioration caused by age, temperature, chemicals or incorrect compression, resulting in external leakage or cross-leakage paths
  • Plate corrosion or pinholing caused by incompatible fluid chemistry, resulting in contamination between circuits
  • Blocked channels caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame or tightening problems caused by incorrect assembly or piping stress, resulting in leakage and uneven gasket loading
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect the frame, tightening arrangement, port connections and visible gasket edges for leakage or distortion. Clean plates using methods compatible with plate and gasket materials and inspect individual plates for corrosion, deformation or cracking when opened. Confirm plate order and orientation during reassembly. Support connected piping independently so nozzle loads are not transferred into the frame. Refer to the manufacturer documentation for the exact tightening dimension, gasket material, cleaning chemistry and pressure-test criteria.
Spare Parts: Keep a set of model-correct plate gaskets, selected spare plates, port gaskets and any special frame sealing components recommended by the manufacturer. For critical coolers, enough plates and gaskets to recover from localized damage can reduce downtime. Verify materials and plate pattern against the exact serial number.
Use Cases: Central cooling, lubricating-oil cooling, freshwater heating and other liquid-to-liquid heat-transfer duties on ships and offshore units.
Datasheet
Hisaka UX-20 200kW FW cooling unverified
Model Family
UX-20
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
200
Application
FW cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Plate-channel fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Gasket, braze or connection leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked channels caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or external connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with plate and sealing materials. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or connection seals, selected spare plates for openable units, filters and manufacturer-recommended service parts. Brazed units are normally replaced as an assembly after an internal structural leak. Verify materials and dimensions against the exact serial number.
Use Cases: Central cooling, lubricating-oil cooling, freshwater heating, refrigeration and other liquid-to-liquid heat-transfer duties on ships and offshore units.
Datasheet
Hisaka UX-20 200kW Central cooling unverified
Model Family
UX-20
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
200
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet
Hisaka UX-20 500kW FW cooling unverified
Model Family
UX-20
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
500
Application
FW cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Plate-channel fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Gasket, braze or connection leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked channels caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or external connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with plate and sealing materials. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or connection seals, selected spare plates for openable units, filters and manufacturer-recommended service parts. Brazed units are normally replaced as an assembly after an internal structural leak. Verify materials and dimensions against the exact serial number.
Use Cases: Central cooling, lubricating-oil cooling, freshwater heating, refrigeration and other liquid-to-liquid heat-transfer duties on ships and offshore units.
Datasheet
Hisaka UX-20 500kW Central cooling unverified
Model Family
UX-20
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
500
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet
Hisaka UX-20 1000kW FW cooling unverified
Model Family
UX-20
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
1000
Application
FW cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Plate-channel fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Gasket, braze or connection leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked channels caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or external connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with plate and sealing materials. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or connection seals, selected spare plates for openable units, filters and manufacturer-recommended service parts. Brazed units are normally replaced as an assembly after an internal structural leak. Verify materials and dimensions against the exact serial number.
Use Cases: Central cooling, lubricating-oil cooling, freshwater heating, refrigeration and other liquid-to-liquid heat-transfer duties on ships and offshore units.
Datasheet
Hisaka UX-20 1000kW Central cooling unverified
Model Family
UX-20
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
1000
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet
Hisaka UX-40 Series unverified
Model Family
UX-40
Heat Exchanger Type
plate_heat_exchanger
Common Failures & Inspection Points
  • Plate fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Gasket deterioration caused by age, temperature, chemicals or incorrect compression, resulting in external leakage or cross-leakage paths
  • Plate corrosion or pinholing caused by incompatible fluid chemistry, resulting in contamination between circuits
  • Blocked channels caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame or tightening problems caused by incorrect assembly or piping stress, resulting in leakage and uneven gasket loading
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect the frame, tightening arrangement, port connections and visible gasket edges for leakage or distortion. Clean plates using methods compatible with plate and gasket materials and inspect individual plates for corrosion, deformation or cracking when opened. Confirm plate order and orientation during reassembly. Support connected piping independently so nozzle loads are not transferred into the frame. Refer to the manufacturer documentation for the exact tightening dimension, gasket material, cleaning chemistry and pressure-test criteria.
Spare Parts: Keep a set of model-correct plate gaskets, selected spare plates, port gaskets and any special frame sealing components recommended by the manufacturer. For critical coolers, enough plates and gaskets to recover from localized damage can reduce downtime. Verify materials and plate pattern against the exact serial number.
Use Cases: Central cooling, lubricating-oil cooling, freshwater heating and other liquid-to-liquid heat-transfer duties on ships and offshore units.
Datasheet
Hisaka UX-40 500kW Central cooling unverified
Model Family
UX-40
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
500
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet
Hisaka UX-40 1000kW Central cooling unverified
Model Family
UX-40
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
1000
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet
Hisaka UX-40 2000kW Central cooling unverified
Model Family
UX-40
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
2000
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet
Hisaka UX-80 Series unverified
Model Family
UX-80
Heat Exchanger Type
plate_heat_exchanger
Common Failures & Inspection Points
  • Plate fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Gasket deterioration caused by age, temperature, chemicals or incorrect compression, resulting in external leakage or cross-leakage paths
  • Plate corrosion or pinholing caused by incompatible fluid chemistry, resulting in contamination between circuits
  • Blocked channels caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame or tightening problems caused by incorrect assembly or piping stress, resulting in leakage and uneven gasket loading
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect the frame, tightening arrangement, port connections and visible gasket edges for leakage or distortion. Clean plates using methods compatible with plate and gasket materials and inspect individual plates for corrosion, deformation or cracking when opened. Confirm plate order and orientation during reassembly. Support connected piping independently so nozzle loads are not transferred into the frame. Refer to the manufacturer documentation for the exact tightening dimension, gasket material, cleaning chemistry and pressure-test criteria.
Spare Parts: Keep a set of model-correct plate gaskets, selected spare plates, port gaskets and any special frame sealing components recommended by the manufacturer. For critical coolers, enough plates and gaskets to recover from localized damage can reduce downtime. Verify materials and plate pattern against the exact serial number.
Use Cases: Central cooling, lubricating-oil cooling, freshwater heating and other liquid-to-liquid heat-transfer duties on ships and offshore units.
Datasheet
Hisaka UX-80 1000kW Central cooling unverified
Model Family
UX-80
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
1000
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet
Hisaka UX-80 2000kW Central cooling unverified
Model Family
UX-80
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
2000
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet
Hisaka UX-80 3000kW Central cooling unverified
Model Family
UX-80
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
3000
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet
Hisaka UX-80 5000kW Central cooling unverified
Model Family
UX-80
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
5000
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet
Hisaka UX-100 Series unverified
Model Family
UX-100
Heat Exchanger Type
plate_heat_exchanger
Common Failures & Inspection Points
  • Plate fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Gasket deterioration caused by age, temperature, chemicals or incorrect compression, resulting in external leakage or cross-leakage paths
  • Plate corrosion or pinholing caused by incompatible fluid chemistry, resulting in contamination between circuits
  • Blocked channels caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame or tightening problems caused by incorrect assembly or piping stress, resulting in leakage and uneven gasket loading
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect the frame, tightening arrangement, port connections and visible gasket edges for leakage or distortion. Clean plates using methods compatible with plate and gasket materials and inspect individual plates for corrosion, deformation or cracking when opened. Confirm plate order and orientation during reassembly. Support connected piping independently so nozzle loads are not transferred into the frame. Refer to the manufacturer documentation for the exact tightening dimension, gasket material, cleaning chemistry and pressure-test criteria.
Spare Parts: Keep a set of model-correct plate gaskets, selected spare plates, port gaskets and any special frame sealing components recommended by the manufacturer. For critical coolers, enough plates and gaskets to recover from localized damage can reduce downtime. Verify materials and plate pattern against the exact serial number.
Use Cases: Central cooling, lubricating-oil cooling, freshwater heating and other liquid-to-liquid heat-transfer duties on ships and offshore units.
Datasheet
Hisaka UX-100 2000kW Central cooling unverified
Model Family
UX-100
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
2000
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet
Hisaka UX-100 3000kW Central cooling unverified
Model Family
UX-100
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
3000
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet
Hisaka UX-100 5000kW Central cooling unverified
Model Family
UX-100
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
5000
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet
Hisaka RX-13 Series unverified
Model Family
RX-13
Heat Exchanger Type
plate_heat_exchanger
Common Failures & Inspection Points
  • Plate fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Gasket deterioration caused by age, temperature, chemicals or incorrect compression, resulting in external leakage or cross-leakage paths
  • Plate corrosion or pinholing caused by incompatible fluid chemistry, resulting in contamination between circuits
  • Blocked channels caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame or tightening problems caused by incorrect assembly or piping stress, resulting in leakage and uneven gasket loading
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect the frame, tightening arrangement, port connections and visible gasket edges for leakage or distortion. Clean plates using methods compatible with plate and gasket materials and inspect individual plates for corrosion, deformation or cracking when opened. Confirm plate order and orientation during reassembly. Support connected piping independently so nozzle loads are not transferred into the frame. Refer to the manufacturer documentation for the exact tightening dimension, gasket material, cleaning chemistry and pressure-test criteria.
Spare Parts: Keep a set of model-correct plate gaskets, selected spare plates, port gaskets and any special frame sealing components recommended by the manufacturer. For critical coolers, enough plates and gaskets to recover from localized damage can reduce downtime. Verify materials and plate pattern against the exact serial number.
Use Cases: Central cooling, lubricating-oil cooling, freshwater heating and other liquid-to-liquid heat-transfer duties on ships and offshore units.
Datasheet
Hisaka RX-13 100kW LO cooling unverified
Model Family
RX-13
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
100
Application
LO cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Plate-channel fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Gasket, braze or connection leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked channels caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or external connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with plate and sealing materials. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or connection seals, selected spare plates for openable units, filters and manufacturer-recommended service parts. Brazed units are normally replaced as an assembly after an internal structural leak. Verify materials and dimensions against the exact serial number.
Use Cases: Central cooling, lubricating-oil cooling, freshwater heating, refrigeration and other liquid-to-liquid heat-transfer duties on ships and offshore units.
Datasheet
Hisaka RX-13 200kW LO cooling unverified
Model Family
RX-13
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
200
Application
LO cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Plate-channel fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Gasket, braze or connection leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked channels caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or external connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with plate and sealing materials. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or connection seals, selected spare plates for openable units, filters and manufacturer-recommended service parts. Brazed units are normally replaced as an assembly after an internal structural leak. Verify materials and dimensions against the exact serial number.
Use Cases: Central cooling, lubricating-oil cooling, freshwater heating, refrigeration and other liquid-to-liquid heat-transfer duties on ships and offshore units.
Datasheet
Hisaka RX-13 500kW LO cooling unverified
Model Family
RX-13
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
500
Application
LO cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Plate-channel fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Gasket, braze or connection leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked channels caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or external connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with plate and sealing materials. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or connection seals, selected spare plates for openable units, filters and manufacturer-recommended service parts. Brazed units are normally replaced as an assembly after an internal structural leak. Verify materials and dimensions against the exact serial number.
Use Cases: Central cooling, lubricating-oil cooling, freshwater heating, refrigeration and other liquid-to-liquid heat-transfer duties on ships and offshore units.
Datasheet
Hisaka RX-30 Series unverified
Model Family
RX-30
Heat Exchanger Type
plate_heat_exchanger
Common Failures & Inspection Points
  • Plate fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Gasket deterioration caused by age, temperature, chemicals or incorrect compression, resulting in external leakage or cross-leakage paths
  • Plate corrosion or pinholing caused by incompatible fluid chemistry, resulting in contamination between circuits
  • Blocked channels caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame or tightening problems caused by incorrect assembly or piping stress, resulting in leakage and uneven gasket loading
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect the frame, tightening arrangement, port connections and visible gasket edges for leakage or distortion. Clean plates using methods compatible with plate and gasket materials and inspect individual plates for corrosion, deformation or cracking when opened. Confirm plate order and orientation during reassembly. Support connected piping independently so nozzle loads are not transferred into the frame. Refer to the manufacturer documentation for the exact tightening dimension, gasket material, cleaning chemistry and pressure-test criteria.
Spare Parts: Keep a set of model-correct plate gaskets, selected spare plates, port gaskets and any special frame sealing components recommended by the manufacturer. For critical coolers, enough plates and gaskets to recover from localized damage can reduce downtime. Verify materials and plate pattern against the exact serial number.
Use Cases: Central cooling, lubricating-oil cooling, freshwater heating and other liquid-to-liquid heat-transfer duties on ships and offshore units.
Datasheet
Hisaka RX-30 200kW Central cooling unverified
Model Family
RX-30
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
200
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet
Hisaka RX-30 500kW Central cooling unverified
Model Family
RX-30
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
500
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet
Hisaka RX-30 1000kW Central cooling unverified
Model Family
RX-30
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
1000
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet

Tranter

39
Tranter GX-12 Series unverified
Model Family
GX-12
Heat Exchanger Type
plate_heat_exchanger
Common Failures & Inspection Points
  • Plate fouling or scaling increases differential pressure and reduces heat-transfer performance
  • Gasket ageing, displacement or chemical attack causes external leakage from the plate pack
  • Plate corrosion, erosion or cracking causes internal cross-contamination between the two fluid circuits
  • Incorrect plate sequence or compression after overhaul causes immediate leakage or poor thermal performance
  • Blocked upstream strainers or restricted valves reduce flow and produce abnormal inlet-to-outlet temperatures
Service: Trend temperatures and differential pressure and inspect the plate pack for leakage. When opened, examine plates for deposits, corrosion and deformation and check gaskets for hardening or displacement. Reassemble only in the documented plate sequence and compression condition. Refer to the manufacturer documentation for the exact figure for tightening dimension, cleaning method and acceptance limits.
Spare Parts: Carry the correct gasket type, representative spare plates, port seals, compatible cleaning materials and associated strainer elements.
Use Cases: Central cooling, jacket-water cooling, oil cooling, HVAC, heating and process duties.
Datasheet
Tranter GX-12 50kW LO cooling unverified
Model Family
GX-12
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
50
Application
LO cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Plate-channel fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Gasket, braze or connection leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked channels caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or external connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with plate and sealing materials. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or connection seals, selected spare plates for openable units, filters and manufacturer-recommended service parts. Brazed units are normally replaced as an assembly after an internal structural leak. Verify materials and dimensions against the exact serial number.
Use Cases: Central cooling, lubricating-oil cooling, freshwater heating, refrigeration and other liquid-to-liquid heat-transfer duties on ships and offshore units.
Datasheet
Tranter GX-12 50kW FW cooling unverified
Model Family
GX-12
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
50
Application
FW cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Plate-channel fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Gasket, braze or connection leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked channels caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or external connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with plate and sealing materials. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or connection seals, selected spare plates for openable units, filters and manufacturer-recommended service parts. Brazed units are normally replaced as an assembly after an internal structural leak. Verify materials and dimensions against the exact serial number.
Use Cases: Central cooling, lubricating-oil cooling, freshwater heating, refrigeration and other liquid-to-liquid heat-transfer duties on ships and offshore units.
Datasheet
Tranter GX-12 100kW LO cooling unverified
Model Family
GX-12
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
100
Application
LO cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Heat-transfer surface fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Seal, gasket, braze or tube leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate or tube corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked flow passages caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame, cover or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or covers, port connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with installed materials and deposits. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or cover seals, selected spare plates or approved tube-repair materials as applicable, port seals and manufacturer-recommended corrosion-protection parts. Brazed units are normally replaced as an assembly after an internal structural leak.
Use Cases: It is used for cooling and heating duties on merchant ships, passenger vessels, offshore units or other vessel types where this equipment category is fitted.
Datasheet
Tranter GX-12 100kW FW cooling unverified
Model Family
GX-12
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
100
Application
FW cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Heat-transfer surface fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Seal, gasket, braze or tube leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate or tube corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked flow passages caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame, cover or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or covers, port connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with installed materials and deposits. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or cover seals, selected spare plates or approved tube-repair materials as applicable, port seals and manufacturer-recommended corrosion-protection parts. Brazed units are normally replaced as an assembly after an internal structural leak.
Use Cases: It is used for cooling and heating duties on merchant ships, passenger vessels, offshore units or other vessel types where this equipment category is fitted.
Datasheet
Tranter GX-12 200kW LO cooling unverified
Model Family
GX-12
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
200
Application
LO cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Heat-transfer surface fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Seal, gasket, braze or tube leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate or tube corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked flow passages caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame, cover or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or covers, port connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with installed materials and deposits. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or cover seals, selected spare plates or approved tube-repair materials as applicable, port seals and manufacturer-recommended corrosion-protection parts. Brazed units are normally replaced as an assembly after an internal structural leak.
Use Cases: It is used for cooling and heating duties on merchant ships, passenger vessels, offshore units or other vessel types where this equipment category is fitted.
Datasheet
Tranter GX-12 200kW FW cooling unverified
Model Family
GX-12
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
200
Application
FW cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Heat-transfer surface fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Seal, gasket, braze or tube leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate or tube corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked flow passages caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame, cover or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or covers, port connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with installed materials and deposits. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or cover seals, selected spare plates or approved tube-repair materials as applicable, port seals and manufacturer-recommended corrosion-protection parts. Brazed units are normally replaced as an assembly after an internal structural leak.
Use Cases: It is used for cooling and heating duties on merchant ships, passenger vessels, offshore units or other vessel types where this equipment category is fitted.
Datasheet
Tranter GX-18 Series unverified
Model Family
GX-18
Heat Exchanger Type
plate_heat_exchanger
Common Failures & Inspection Points
  • Plate fouling or scaling increases differential pressure and reduces heat-transfer performance
  • Gasket ageing, displacement or chemical attack causes external leakage from the plate pack
  • Plate corrosion, erosion or cracking causes internal cross-contamination between the two fluid circuits
  • Incorrect plate sequence or compression after overhaul causes immediate leakage or poor thermal performance
  • Blocked upstream strainers or restricted valves reduce flow and produce abnormal inlet-to-outlet temperatures
Service: Trend temperatures and differential pressure and inspect the plate pack for leakage. When opened, examine plates for deposits, corrosion and deformation and check gaskets for hardening or displacement. Reassemble only in the documented plate sequence and compression condition. Refer to the manufacturer documentation for the exact figure for tightening dimension, cleaning method and acceptance limits.
Spare Parts: Carry the correct gasket type, representative spare plates, port seals, compatible cleaning materials and associated strainer elements.
Use Cases: Central cooling, jacket-water cooling, oil cooling, HVAC, heating and process duties.
Datasheet
Tranter GX-18 100kW LO cooling unverified
Model Family
GX-18
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
100
Application
LO cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Heat-transfer surface fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Seal, gasket, braze or tube leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate or tube corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked flow passages caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame, cover or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or covers, port connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with installed materials and deposits. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or cover seals, selected spare plates or approved tube-repair materials as applicable, port seals and manufacturer-recommended corrosion-protection parts. Brazed units are normally replaced as an assembly after an internal structural leak.
Use Cases: It is used for cooling and heating duties on merchant ships, passenger vessels, offshore units or other vessel types where this equipment category is fitted.
Datasheet
Tranter GX-18 100kW FW cooling unverified
Model Family
GX-18
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
100
Application
FW cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Heat-transfer surface fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Seal, gasket, braze or tube leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate or tube corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked flow passages caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame, cover or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or covers, port connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with installed materials and deposits. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or cover seals, selected spare plates or approved tube-repair materials as applicable, port seals and manufacturer-recommended corrosion-protection parts. Brazed units are normally replaced as an assembly after an internal structural leak.
Use Cases: It is used for cooling and heating duties on merchant ships, passenger vessels, offshore units or other vessel types where this equipment category is fitted.
Datasheet
Tranter GX-18 200kW LO cooling unverified
Model Family
GX-18
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
200
Application
LO cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Heat-transfer surface fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Seal, gasket, braze or tube leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate or tube corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked flow passages caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame, cover or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or covers, port connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with installed materials and deposits. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or cover seals, selected spare plates or approved tube-repair materials as applicable, port seals and manufacturer-recommended corrosion-protection parts. Brazed units are normally replaced as an assembly after an internal structural leak.
Use Cases: It is used for cooling and heating duties on merchant ships, passenger vessels, offshore units or other vessel types where this equipment category is fitted.
Datasheet
Tranter GX-18 200kW FW cooling unverified
Model Family
GX-18
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
200
Application
FW cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Heat-transfer surface fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Seal, gasket, braze or tube leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate or tube corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked flow passages caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame, cover or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or covers, port connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with installed materials and deposits. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or cover seals, selected spare plates or approved tube-repair materials as applicable, port seals and manufacturer-recommended corrosion-protection parts. Brazed units are normally replaced as an assembly after an internal structural leak.
Use Cases: It is used for cooling and heating duties on merchant ships, passenger vessels, offshore units or other vessel types where this equipment category is fitted.
Datasheet
Tranter GX-18 500kW LO cooling unverified
Model Family
GX-18
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
500
Application
LO cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Heat-transfer surface fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Seal, gasket, braze or tube leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate or tube corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked flow passages caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame, cover or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or covers, port connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with installed materials and deposits. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or cover seals, selected spare plates or approved tube-repair materials as applicable, port seals and manufacturer-recommended corrosion-protection parts. Brazed units are normally replaced as an assembly after an internal structural leak.
Use Cases: It is used for cooling and heating duties on merchant ships, passenger vessels, offshore units or other vessel types where this equipment category is fitted.
Datasheet
Tranter GX-18 500kW FW cooling unverified
Model Family
GX-18
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
500
Application
FW cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Heat-transfer surface fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Seal, gasket, braze or tube leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate or tube corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked flow passages caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame, cover or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or covers, port connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with installed materials and deposits. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or cover seals, selected spare plates or approved tube-repair materials as applicable, port seals and manufacturer-recommended corrosion-protection parts. Brazed units are normally replaced as an assembly after an internal structural leak.
Use Cases: It is used for cooling and heating duties on merchant ships, passenger vessels, offshore units or other vessel types where this equipment category is fitted.
Datasheet
Tranter GX-26 Series unverified
Model Family
GX-26
Heat Exchanger Type
plate_heat_exchanger
Common Failures & Inspection Points
  • Plate fouling or scaling increases differential pressure and reduces heat-transfer performance
  • Gasket ageing, displacement or chemical attack causes external leakage from the plate pack
  • Plate corrosion, erosion or cracking causes internal cross-contamination between the two fluid circuits
  • Incorrect plate sequence or compression after overhaul causes immediate leakage or poor thermal performance
  • Blocked upstream strainers or restricted valves reduce flow and produce abnormal inlet-to-outlet temperatures
Service: Trend temperatures and differential pressure and inspect the plate pack for leakage. When opened, examine plates for deposits, corrosion and deformation and check gaskets for hardening or displacement. Reassemble only in the documented plate sequence and compression condition. Refer to the manufacturer documentation for the exact figure for tightening dimension, cleaning method and acceptance limits.
Spare Parts: Carry the correct gasket type, representative spare plates, port seals, compatible cleaning materials and associated strainer elements.
Use Cases: Central cooling, jacket-water cooling, oil cooling, HVAC, heating and process duties.
Datasheet
Tranter GX-26 200kW Central cooling unverified
Model Family
GX-26
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
200
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet
Tranter GX-26 200kW FW cooling unverified
Model Family
GX-26
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
200
Application
FW cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Heat-transfer surface fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Seal, gasket, braze or tube leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate or tube corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked flow passages caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame, cover or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or covers, port connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with installed materials and deposits. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or cover seals, selected spare plates or approved tube-repair materials as applicable, port seals and manufacturer-recommended corrosion-protection parts. Brazed units are normally replaced as an assembly after an internal structural leak.
Use Cases: It is used for cooling and heating duties on merchant ships, passenger vessels, offshore units or other vessel types where this equipment category is fitted.
Datasheet
Tranter GX-26 500kW Central cooling unverified
Model Family
GX-26
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
500
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet
Tranter GX-26 500kW FW cooling unverified
Model Family
GX-26
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
500
Application
FW cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Heat-transfer surface fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Seal, gasket, braze or tube leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate or tube corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked flow passages caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame, cover or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or covers, port connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with installed materials and deposits. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or cover seals, selected spare plates or approved tube-repair materials as applicable, port seals and manufacturer-recommended corrosion-protection parts. Brazed units are normally replaced as an assembly after an internal structural leak.
Use Cases: It is used for cooling and heating duties on merchant ships, passenger vessels, offshore units or other vessel types where this equipment category is fitted.
Datasheet
Tranter GX-26 1000kW Central cooling unverified
Model Family
GX-26
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
1000
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet
Tranter GX-26 1000kW FW cooling unverified
Model Family
GX-26
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
1000
Application
FW cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Heat-transfer surface fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Seal, gasket, braze or tube leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate or tube corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked flow passages caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame, cover or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or covers, port connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with installed materials and deposits. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or cover seals, selected spare plates or approved tube-repair materials as applicable, port seals and manufacturer-recommended corrosion-protection parts. Brazed units are normally replaced as an assembly after an internal structural leak.
Use Cases: It is used for cooling and heating duties on merchant ships, passenger vessels, offshore units or other vessel types where this equipment category is fitted.
Datasheet
Tranter GX-42 Series unverified
Model Family
GX-42
Heat Exchanger Type
plate_heat_exchanger
Common Failures & Inspection Points
  • Plate fouling or scaling increases differential pressure and reduces heat-transfer performance
  • Gasket ageing, displacement or chemical attack causes external leakage from the plate pack
  • Plate corrosion, erosion or cracking causes internal cross-contamination between the two fluid circuits
  • Incorrect plate sequence or compression after overhaul causes immediate leakage or poor thermal performance
  • Blocked upstream strainers or restricted valves reduce flow and produce abnormal inlet-to-outlet temperatures
Service: Trend temperatures and differential pressure and inspect the plate pack for leakage. When opened, examine plates for deposits, corrosion and deformation and check gaskets for hardening or displacement. Reassemble only in the documented plate sequence and compression condition. Refer to the manufacturer documentation for the exact figure for tightening dimension, cleaning method and acceptance limits.
Spare Parts: Carry the correct gasket type, representative spare plates, port seals, compatible cleaning materials and associated strainer elements.
Use Cases: Central cooling, jacket-water cooling, oil cooling, HVAC, heating and process duties.
Datasheet
Tranter GX-42 500kW Central cooling unverified
Model Family
GX-42
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
500
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet
Tranter GX-42 1000kW Central cooling unverified
Model Family
GX-42
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
1000
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet
Tranter GX-42 2000kW Central cooling unverified
Model Family
GX-42
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
2000
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet
Tranter GX-60 Series unverified
Model Family
GX-60
Heat Exchanger Type
plate_heat_exchanger
Common Failures & Inspection Points
  • Plate fouling or scaling increases differential pressure and reduces heat-transfer performance
  • Gasket ageing, displacement or chemical attack causes external leakage from the plate pack
  • Plate corrosion, erosion or cracking causes internal cross-contamination between the two fluid circuits
  • Incorrect plate sequence or compression after overhaul causes immediate leakage or poor thermal performance
  • Blocked upstream strainers or restricted valves reduce flow and produce abnormal inlet-to-outlet temperatures
Service: Trend temperatures and differential pressure and inspect the plate pack for leakage. When opened, examine plates for deposits, corrosion and deformation and check gaskets for hardening or displacement. Reassemble only in the documented plate sequence and compression condition. Refer to the manufacturer documentation for the exact figure for tightening dimension, cleaning method and acceptance limits.
Spare Parts: Carry the correct gasket type, representative spare plates, port seals, compatible cleaning materials and associated strainer elements.
Use Cases: Central cooling, jacket-water cooling, oil cooling, HVAC, heating and process duties.
Datasheet
Tranter GX-60 1000kW Central cooling unverified
Model Family
GX-60
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
1000
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet
Tranter GX-60 1000kW Jacket water cooling unverified
Model Family
GX-60
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
1000
Application
Jacket water cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet
Tranter GX-60 2000kW Central cooling unverified
Model Family
GX-60
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
2000
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet
Tranter GX-60 2000kW Jacket water cooling unverified
Model Family
GX-60
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
2000
Application
Jacket water cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet
Tranter GX-60 3000kW Central cooling unverified
Model Family
GX-60
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
3000
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet
Tranter GX-60 3000kW Jacket water cooling unverified
Model Family
GX-60
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
3000
Application
Jacket water cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet
Tranter GX-85 Series unverified
Model Family
GX-85
Heat Exchanger Type
plate_heat_exchanger
Common Failures & Inspection Points
  • Plate fouling or scaling increases differential pressure and reduces heat-transfer performance
  • Gasket ageing, displacement or chemical attack causes external leakage from the plate pack
  • Plate corrosion, erosion or cracking causes internal cross-contamination between the two fluid circuits
  • Incorrect plate sequence or compression after overhaul causes immediate leakage or poor thermal performance
  • Blocked upstream strainers or restricted valves reduce flow and produce abnormal inlet-to-outlet temperatures
Service: Trend temperatures and differential pressure and inspect the plate pack for leakage. When opened, examine plates for deposits, corrosion and deformation and check gaskets for hardening or displacement. Reassemble only in the documented plate sequence and compression condition. Refer to the manufacturer documentation for the exact figure for tightening dimension, cleaning method and acceptance limits.
Spare Parts: Carry the correct gasket type, representative spare plates, port seals, compatible cleaning materials and associated strainer elements.
Use Cases: Central cooling, jacket-water cooling, oil cooling, HVAC, heating and process duties.
Datasheet
Tranter GX-85 2000kW Central cooling unverified
Model Family
GX-85
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
2000
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet
Tranter GX-85 3000kW Central cooling unverified
Model Family
GX-85
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
3000
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet
Tranter GX-85 5000kW Central cooling unverified
Model Family
GX-85
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
5000
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet
Tranter GX-100 Series unverified
Model Family
GX-100
Heat Exchanger Type
plate_heat_exchanger
Common Failures & Inspection Points
  • Fouling on the heat-transfer surfaces from scale, sludge, biological growth, or oil contamination reduces thermal performance and appears as rising outlet temperature or reduced temperature approach
  • Gasket, seal, tube, or plate leakage caused by ageing, corrosion, or mechanical damage can allow external leakage or cross-contamination between circuits
  • Restricted flow from debris or deposits raises differential pressure and can reduce downstream flow
  • Corrosion or erosion of wetted surfaces caused by unsuitable water chemistry, velocity, or material attack can produce pinhole leakage and contamination
  • Loose covers, plate packs, or connections after maintenance can cause leakage, unstable temperatures, or loss of system pressure
Service: Inspect for external leakage, corrosion, abnormal temperature difference, flow restriction, and evidence of cross-contamination. Trend inlet and outlet temperatures and differential pressure where instruments are fitted, clean the heat-transfer surfaces using an approved method, and verify tightening or assembly against the manufacturer documentation.
Spare Parts: Keep the applicable gasket or seal set, connection seals, and any model-specific plate, tube, or fastening items recommended by the manufacturer. For the exact spare quantities and part numbers, refer to the manufacturer documentation.
Use Cases: Used on merchant ships, offshore vessels, passenger ships, fishing vessels, and workboats wherever machinery or process fluids require controlled heating or cooling.
Datasheet
Tranter GX-100 3000kW Central cooling unverified
Model Family
GX-100
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
3000
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet
Tranter GX-100 5000kW Central cooling unverified
Model Family
GX-100
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
5000
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet

APV/SPX

29
APV ParaFlow N35 Series unverified
Model Family
ParaFlow N35
Heat Exchanger Type
plate_heat_exchanger
Common Failures & Inspection Points
  • Fouling on the heat-transfer surfaces from scale, sludge, biological growth, or oil contamination reduces thermal performance and appears as rising outlet temperature or reduced temperature approach
  • Gasket, seal, tube, or plate leakage caused by ageing, corrosion, or mechanical damage can allow external leakage or cross-contamination between circuits
  • Restricted flow from debris or deposits raises differential pressure and can reduce downstream flow
  • Corrosion or erosion of wetted surfaces caused by unsuitable water chemistry, velocity, or material attack can produce pinhole leakage and contamination
  • Loose covers, plate packs, or connections after maintenance can cause leakage, unstable temperatures, or loss of system pressure
Service: Inspect for external leakage, corrosion, abnormal temperature difference, flow restriction, and evidence of cross-contamination. Trend inlet and outlet temperatures and differential pressure where instruments are fitted, clean the heat-transfer surfaces using an approved method, and verify tightening or assembly against the manufacturer documentation.
Spare Parts: Keep the applicable gasket or seal set, connection seals, and any model-specific plate, tube, or fastening items recommended by the manufacturer. For the exact spare quantities and part numbers, refer to the manufacturer documentation.
Use Cases: Used on merchant ships, offshore vessels, passenger ships, fishing vessels, and workboats wherever machinery or process fluids require controlled heating or cooling.
Datasheet
APV ParaFlow N35 50kW LO cooling unverified
Model Family
ParaFlow N35
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
50
Application
LO cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Heat-transfer surface fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Seal, gasket, braze or tube leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate or tube corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked flow passages caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame, cover or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or covers, port connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with installed materials and deposits. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or cover seals, selected spare plates or approved tube-repair materials as applicable, port seals and manufacturer-recommended corrosion-protection parts. Brazed units are normally replaced as an assembly after an internal structural leak.
Use Cases: It is used for cooling and heating duties on merchant ships, passenger vessels, offshore units or other vessel types where this equipment category is fitted.
Datasheet
APV ParaFlow N35 50kW FW cooling unverified
Model Family
ParaFlow N35
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
50
Application
FW cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Heat-transfer surface fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Seal, gasket, braze or tube leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate or tube corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked flow passages caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame, cover or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or covers, port connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with installed materials and deposits. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or cover seals, selected spare plates or approved tube-repair materials as applicable, port seals and manufacturer-recommended corrosion-protection parts. Brazed units are normally replaced as an assembly after an internal structural leak.
Use Cases: It is used for cooling and heating duties on merchant ships, passenger vessels, offshore units or other vessel types where this equipment category is fitted.
Datasheet
APV ParaFlow N35 100kW LO cooling unverified
Model Family
ParaFlow N35
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
100
Application
LO cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Heat-transfer surface fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Seal, gasket, braze or tube leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate or tube corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked flow passages caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame, cover or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or covers, port connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with installed materials and deposits. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or cover seals, selected spare plates or approved tube-repair materials as applicable, port seals and manufacturer-recommended corrosion-protection parts. Brazed units are normally replaced as an assembly after an internal structural leak.
Use Cases: It is used for cooling and heating duties on merchant ships, passenger vessels, offshore units or other vessel types where this equipment category is fitted.
Datasheet
APV ParaFlow N35 100kW FW cooling unverified
Model Family
ParaFlow N35
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
100
Application
FW cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Heat-transfer surface fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Seal, gasket, braze or tube leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate or tube corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked flow passages caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame, cover or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or covers, port connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with installed materials and deposits. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or cover seals, selected spare plates or approved tube-repair materials as applicable, port seals and manufacturer-recommended corrosion-protection parts. Brazed units are normally replaced as an assembly after an internal structural leak.
Use Cases: It is used for cooling and heating duties on merchant ships, passenger vessels, offshore units or other vessel types where this equipment category is fitted.
Datasheet
APV ParaFlow N35 200kW LO cooling unverified
Model Family
ParaFlow N35
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
200
Application
LO cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Heat-transfer surface fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Seal, gasket, braze or tube leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate or tube corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked flow passages caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame, cover or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or covers, port connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with installed materials and deposits. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or cover seals, selected spare plates or approved tube-repair materials as applicable, port seals and manufacturer-recommended corrosion-protection parts. Brazed units are normally replaced as an assembly after an internal structural leak.
Use Cases: It is used for cooling and heating duties on merchant ships, passenger vessels, offshore units or other vessel types where this equipment category is fitted.
Datasheet
APV ParaFlow N35 200kW FW cooling unverified
Model Family
ParaFlow N35
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
200
Application
FW cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Heat-transfer surface fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Seal, gasket, braze or tube leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate or tube corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked flow passages caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame, cover or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or covers, port connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with installed materials and deposits. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or cover seals, selected spare plates or approved tube-repair materials as applicable, port seals and manufacturer-recommended corrosion-protection parts. Brazed units are normally replaced as an assembly after an internal structural leak.
Use Cases: It is used for cooling and heating duties on merchant ships, passenger vessels, offshore units or other vessel types where this equipment category is fitted.
Datasheet
APV ParaFlow N35 500kW LO cooling unverified
Model Family
ParaFlow N35
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
500
Application
LO cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Heat-transfer surface fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Seal, gasket, braze or tube leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate or tube corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked flow passages caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame, cover or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or covers, port connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with installed materials and deposits. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or cover seals, selected spare plates or approved tube-repair materials as applicable, port seals and manufacturer-recommended corrosion-protection parts. Brazed units are normally replaced as an assembly after an internal structural leak.
Use Cases: It is used for cooling and heating duties on merchant ships, passenger vessels, offshore units or other vessel types where this equipment category is fitted.
Datasheet
APV ParaFlow N35 500kW FW cooling unverified
Model Family
ParaFlow N35
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
500
Application
FW cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Heat-transfer surface fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Seal, gasket, braze or tube leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate or tube corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked flow passages caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame, cover or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or covers, port connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with installed materials and deposits. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or cover seals, selected spare plates or approved tube-repair materials as applicable, port seals and manufacturer-recommended corrosion-protection parts. Brazed units are normally replaced as an assembly after an internal structural leak.
Use Cases: It is used for cooling and heating duties on merchant ships, passenger vessels, offshore units or other vessel types where this equipment category is fitted.
Datasheet
APV ParaFlow N50 Series unverified
Model Family
ParaFlow N50
Heat Exchanger Type
plate_heat_exchanger
Common Failures & Inspection Points
  • Fouling on the heat-transfer surfaces from scale, sludge, biological growth, or oil contamination reduces thermal performance and appears as rising outlet temperature or reduced temperature approach
  • Gasket, seal, tube, or plate leakage caused by ageing, corrosion, or mechanical damage can allow external leakage or cross-contamination between circuits
  • Restricted flow from debris or deposits raises differential pressure and can reduce downstream flow
  • Corrosion or erosion of wetted surfaces caused by unsuitable water chemistry, velocity, or material attack can produce pinhole leakage and contamination
  • Loose covers, plate packs, or connections after maintenance can cause leakage, unstable temperatures, or loss of system pressure
Service: Inspect for external leakage, corrosion, abnormal temperature difference, flow restriction, and evidence of cross-contamination. Trend inlet and outlet temperatures and differential pressure where instruments are fitted, clean the heat-transfer surfaces using an approved method, and verify tightening or assembly against the manufacturer documentation.
Spare Parts: Keep the applicable gasket or seal set, connection seals, and any model-specific plate, tube, or fastening items recommended by the manufacturer. For the exact spare quantities and part numbers, refer to the manufacturer documentation.
Use Cases: Used on merchant ships, offshore vessels, passenger ships, fishing vessels, and workboats wherever machinery or process fluids require controlled heating or cooling.
Datasheet
APV ParaFlow N50 200kW FW cooling unverified
Model Family
ParaFlow N50
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
200
Application
FW cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Heat-transfer surface fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Seal, gasket, braze or tube leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate or tube corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked flow passages caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame, cover or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or covers, port connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with installed materials and deposits. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or cover seals, selected spare plates or approved tube-repair materials as applicable, port seals and manufacturer-recommended corrosion-protection parts. Brazed units are normally replaced as an assembly after an internal structural leak.
Use Cases: It is used for cooling and heating duties on merchant ships, passenger vessels, offshore units or other vessel types where this equipment category is fitted.
Datasheet
APV/SPX APV ParaFlow N50 200kW Central cooling
APV ParaFlow N50 200kW Central cooling unverified
Model Family
ParaFlow N50
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
200
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet
APV ParaFlow N50 500kW FW cooling unverified
Model Family
ParaFlow N50
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
500
Application
FW cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Heat-transfer surface fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Seal, gasket, braze or tube leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate or tube corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked flow passages caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame, cover or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or covers, port connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with installed materials and deposits. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or cover seals, selected spare plates or approved tube-repair materials as applicable, port seals and manufacturer-recommended corrosion-protection parts. Brazed units are normally replaced as an assembly after an internal structural leak.
Use Cases: It is used for cooling and heating duties on merchant ships, passenger vessels, offshore units or other vessel types where this equipment category is fitted.
Datasheet
APV ParaFlow N50 500kW Central cooling unverified
Model Family
ParaFlow N50
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
500
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet
APV ParaFlow N50 1000kW FW cooling unverified
Model Family
ParaFlow N50
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
1000
Application
FW cooling
Material
stainless_steel_316
Common Failures & Inspection Points
  • Heat-transfer surface fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Seal, gasket, braze or tube leakage caused by wear, corrosion or thermal cycling, resulting in external leakage or cross-contamination
  • Plate or tube corrosion caused by incompatible fluid chemistry, resulting in pinholes and contamination between circuits
  • Blocked flow passages caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame, cover or connection problems caused by incorrect assembly or piping stress, resulting in leakage and mechanical distortion
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect frame or covers, port connections and visible sealing areas for leakage or distortion. Clean heat-transfer surfaces using methods compatible with installed materials and deposits. Investigate any evidence of cross-contamination with an approved leak or pressure test. Support connected piping independently so nozzle loads are not transferred into the exchanger. Refer to the manufacturer documentation for the exact figure for tightening, cleaning, pressure-test and repair criteria.
Spare Parts: Keep model-correct gaskets or cover seals, selected spare plates or approved tube-repair materials as applicable, port seals and manufacturer-recommended corrosion-protection parts. Brazed units are normally replaced as an assembly after an internal structural leak.
Use Cases: It is used for cooling and heating duties on merchant ships, passenger vessels, offshore units or other vessel types where this equipment category is fitted.
Datasheet
APV ParaFlow N50 1000kW Central cooling unverified
Model Family
ParaFlow N50
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
1000
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet
APV ParaFlow R55 Series unverified
Model Family
ParaFlow R55
Heat Exchanger Type
plate_heat_exchanger
Common Failures & Inspection Points
  • Fouling on the heat-transfer surfaces from scale, sludge, biological growth, or oil contamination reduces thermal performance and appears as rising outlet temperature or reduced temperature approach
  • Gasket, seal, tube, or plate leakage caused by ageing, corrosion, or mechanical damage can allow external leakage or cross-contamination between circuits
  • Restricted flow from debris or deposits raises differential pressure and can reduce downstream flow
  • Corrosion or erosion of wetted surfaces caused by unsuitable water chemistry, velocity, or material attack can produce pinhole leakage and contamination
  • Loose covers, plate packs, or connections after maintenance can cause leakage, unstable temperatures, or loss of system pressure
Service: Inspect for external leakage, corrosion, abnormal temperature difference, flow restriction, and evidence of cross-contamination. Trend inlet and outlet temperatures and differential pressure where instruments are fitted, clean the heat-transfer surfaces using an approved method, and verify tightening or assembly against the manufacturer documentation.
Spare Parts: Keep the applicable gasket or seal set, connection seals, and any model-specific plate, tube, or fastening items recommended by the manufacturer. For the exact spare quantities and part numbers, refer to the manufacturer documentation.
Use Cases: Used on merchant ships, offshore vessels, passenger ships, fishing vessels, and workboats wherever machinery or process fluids require controlled heating or cooling.
Datasheet
APV ParaFlow R55 500kW Central cooling unverified
Model Family
ParaFlow R55
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
500
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet
APV ParaFlow R55 1000kW Central cooling unverified
Model Family
ParaFlow R55
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
1000
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet
APV ParaFlow R55 2000kW Central cooling unverified
Model Family
ParaFlow R55
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
2000
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet
APV ParaFlow R85 Series unverified
Model Family
ParaFlow R85
Heat Exchanger Type
plate_heat_exchanger
Common Failures & Inspection Points
  • Fouling on the heat-transfer surfaces from scale, sludge, biological growth, or oil contamination reduces thermal performance and appears as rising outlet temperature or reduced temperature approach
  • Gasket, seal, tube, or plate leakage caused by ageing, corrosion, or mechanical damage can allow external leakage or cross-contamination between circuits
  • Restricted flow from debris or deposits raises differential pressure and can reduce downstream flow
  • Corrosion or erosion of wetted surfaces caused by unsuitable water chemistry, velocity, or material attack can produce pinhole leakage and contamination
  • Loose covers, plate packs, or connections after maintenance can cause leakage, unstable temperatures, or loss of system pressure
Service: Inspect for external leakage, corrosion, abnormal temperature difference, flow restriction, and evidence of cross-contamination. Trend inlet and outlet temperatures and differential pressure where instruments are fitted, clean the heat-transfer surfaces using an approved method, and verify tightening or assembly against the manufacturer documentation.
Spare Parts: Keep the applicable gasket or seal set, connection seals, and any model-specific plate, tube, or fastening items recommended by the manufacturer. For the exact spare quantities and part numbers, refer to the manufacturer documentation.
Use Cases: Used on merchant ships, offshore vessels, passenger ships, fishing vessels, and workboats wherever machinery or process fluids require controlled heating or cooling.
Datasheet
APV ParaFlow R85 1000kW Central cooling unverified
Model Family
ParaFlow R85
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
1000
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet
APV ParaFlow R85 2000kW Central cooling unverified
Model Family
ParaFlow R85
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
2000
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet
APV ParaFlow R85 3000kW Central cooling unverified
Model Family
ParaFlow R85
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
3000
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet
APV ParaFlow Q080 Series unverified
Model Family
ParaFlow Q080
Heat Exchanger Type
plate_heat_exchanger
Common Failures & Inspection Points
  • Fouling on the heat-transfer surfaces from scale, sludge, biological growth, or oil contamination reduces thermal performance and appears as rising outlet temperature or reduced temperature approach
  • Gasket, seal, tube, or plate leakage caused by ageing, corrosion, or mechanical damage can allow external leakage or cross-contamination between circuits
  • Restricted flow from debris or deposits raises differential pressure and can reduce downstream flow
  • Corrosion or erosion of wetted surfaces caused by unsuitable water chemistry, velocity, or material attack can produce pinhole leakage and contamination
  • Loose covers, plate packs, or connections after maintenance can cause leakage, unstable temperatures, or loss of system pressure
Service: Inspect for external leakage, corrosion, abnormal temperature difference, flow restriction, and evidence of cross-contamination. Trend inlet and outlet temperatures and differential pressure where instruments are fitted, clean the heat-transfer surfaces using an approved method, and verify tightening or assembly against the manufacturer documentation.
Spare Parts: Keep the applicable gasket or seal set, connection seals, and any model-specific plate, tube, or fastening items recommended by the manufacturer. For the exact spare quantities and part numbers, refer to the manufacturer documentation.
Use Cases: Used on merchant ships, offshore vessels, passenger ships, fishing vessels, and workboats wherever machinery or process fluids require controlled heating or cooling.
Datasheet
APV ParaFlow Q080 1000kW Central cooling unverified
Model Family
ParaFlow Q080
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
1000
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet
APV ParaFlow Q080 2000kW Central cooling unverified
Model Family
ParaFlow Q080
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
2000
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet
APV ParaFlow Q080 3000kW Central cooling unverified
Model Family
ParaFlow Q080
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
3000
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet
APV ParaFlow Q080 5000kW Central cooling unverified
Model Family
ParaFlow Q080
Heat Exchanger Type
plate_heat_exchanger
Capacity (kW)
5000
Application
Central cooling
Material
titanium
Common Failures & Inspection Points
  • Fouling on heat-transfer surfaces can reduce thermal performance, seen as higher approach temperatures or reduced capacity
  • Gasket or tube leakage can mix or release fluids, noticed as pressure loss, contamination or external leakage
  • Corrosion or erosion can perforate plates or tubes, detected by leakage or pressure testing
  • Blocked passages can raise differential pressure and reduce flow
  • Loose clamping or damaged connections can cause leakage during temperature and pressure cycling
Service: Monitor inlet/outlet temperatures, pressure drop and leakage, and inspect accessible plates, tubes, gaskets and connections. Clean heat-transfer surfaces using methods compatible with the materials and service. Tightening dimensions, pressure-test values and rejection criteria must follow manufacturer documentation.
Spare Parts: Carry compatible gaskets, seals, selected plates or plugs where applicable, and cleaning/connection consumables recommended for the installed unit.
Use Cases: Used throughout shipboard cooling, heating, fuel-conditioning and HVAC systems on nearly all vessel types.
Datasheet

APV

5
APV N25 unverified
5 m² surface
Exchanger type
plate
Surface area m2
5
Max. Pressure (bar)
25
Application
LO/FW cooling
Common Failures & Inspection Points
  • Plate fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Gasket deterioration caused by age, temperature, chemicals or incorrect compression, resulting in external leakage or cross-leakage paths
  • Plate corrosion or pinholing caused by incompatible fluid chemistry, resulting in contamination between circuits
  • Blocked channels caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame or tightening problems caused by incorrect assembly or piping stress, resulting in leakage and uneven gasket loading
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect the frame, tightening arrangement, port connections and visible gasket edges for leakage or distortion. Clean plates using methods compatible with plate and gasket materials and inspect individual plates for corrosion, deformation or cracking when opened. Confirm plate order and orientation during reassembly. Support connected piping independently so nozzle loads are not transferred into the frame. Refer to the manufacturer documentation for the exact tightening dimension, gasket material, cleaning chemistry and pressure-test criteria.
Spare Parts: Keep a set of model-correct plate gaskets, selected spare plates, port gaskets and any special frame sealing components recommended by the manufacturer. For critical coolers, enough plates and gaskets to recover from localized damage can reduce downtime. Verify materials and plate pattern against the exact serial number.
Use Cases: Central cooling, lubricating-oil cooling, freshwater heating and other liquid-to-liquid heat-transfer duties on ships and offshore units.
Datasheet
APV N35 unverified
15 m² surface
Exchanger type
plate
Surface area m2
15
Max. Pressure (bar)
25
Application
central cooler
Common Failures & Inspection Points
  • Plate fouling caused by scale, sludge or biological deposits, resulting in reduced thermal performance and increased pressure drop
  • Gasket deterioration caused by age, temperature, chemicals or incorrect compression, resulting in external leakage or cross-leakage paths
  • Plate corrosion or pinholing caused by incompatible fluid chemistry, resulting in contamination between circuits
  • Blocked channels caused by debris or deposits, resulting in uneven flow and abnormal differential pressure
  • Frame or tightening problems caused by incorrect assembly or piping stress, resulting in leakage and uneven gasket loading
Service: Trend inlet and outlet temperatures and pressure drop to identify fouling. Inspect the frame, tightening arrangement, port connections and visible gasket edges for leakage or distortion. Clean plates using methods compatible with plate and gasket materials and inspect individual plates for corrosion, deformation or cracking when opened. Confirm plate order and orientation during reassembly. Support connected piping independently so nozzle loads are not transferred into the frame. Refer to the manufacturer documentation for the exact tightening dimension, gasket material, cleaning chemistry and pressure-test criteria.
Spare Parts: Keep a set of model-correct plate gaskets, selected spare plates, port gaskets and any special frame sealing components recommended by the manufacturer. For critical coolers, enough plates and gaskets to recover from localized damage can reduce downtime. Verify materials and plate pattern against the exact serial number.
Use Cases: Central cooling, lubricating-oil cooling, freshwater heating and other liquid-to-liquid heat-transfer duties on ships and offshore units.
Datasheet
APV N50 unverified
40 m² surface
Exchanger type
plate
Surface area m2
40
Max. Pressure (bar)
25
Application
main cooler
Common Failures & Inspection Points
  • Plate fouling or scaling raises differential pressure and reduces heat-transfer performance
  • Gasket ageing, displacement or chemical attack causes external leakage at the plate pack
  • Plate corrosion, erosion or cracking causes internal cross-contamination between fluid circuits
  • Incorrect plate sequence or compression after overhaul causes immediate leakage or poor thermal performance
  • Blocked upstream strainers reduce flow and create abnormal inlet-to-outlet temperatures
Service: Trend temperatures and differential pressure, inspect the plate pack for leakage and open it when condition or maintenance planning requires. Check plates for deposits, corrosion and deformation and gaskets for hardening or displacement. Reassemble in the documented sequence. Exact tightening dimension and cleaning limits require manufacturer documentation.
Spare Parts: Carry the correct gasket type, representative spare plates, port seals, compatible cleaning materials and associated strainer elements.
Use Cases: Central cooling, jacket-water cooling, oil cooling, HVAC, heating and process duties.
Datasheet
APV N25-H unverified
5 m² surface
Exchanger type
plate
Surface area m2
5
Max. Pressure (bar)
30
Application
high-pressure
Common Failures & Inspection Points
  • Plate fouling or scaling increases differential pressure and reduces heat-transfer performance
  • Gasket ageing, displacement or chemical attack causes external leakage from the plate pack
  • Plate corrosion, erosion or cracking causes internal cross-contamination between the two fluid circuits
  • Incorrect plate sequence or compression after overhaul causes immediate leakage or poor thermal performance
  • Blocked upstream strainers or restricted valves reduce flow and produce abnormal inlet-to-outlet temperatures
Service: Trend temperatures and differential pressure and inspect the plate pack for leakage. When opened, examine plates for deposits, corrosion and deformation and check gaskets for hardening or displacement. Reassemble only in the documented plate sequence and compression condition. Refer to the manufacturer documentation for the exact figure for tightening dimension, cleaning method and acceptance limits.
Spare Parts: Carry the correct gasket type, representative spare plates, port seals, compatible cleaning materials and associated strainer elements.
Use Cases: Central cooling, jacket-water cooling, oil cooling, HVAC, heating and process duties.
Datasheet
APV N35-H unverified
15 m² surface
Exchanger type
plate
Surface area m2
15
Max. Pressure (bar)
30
Application
high-pressure
Common Failures & Inspection Points
  • Plate fouling or scaling increases differential pressure and reduces heat-transfer performance
  • Gasket ageing, displacement or chemical attack causes external leakage from the plate pack
  • Plate corrosion, erosion or cracking causes internal cross-contamination between the two fluid circuits
  • Incorrect plate sequence or compression after overhaul causes immediate leakage or poor thermal performance
  • Blocked upstream strainers or restricted valves reduce flow and produce abnormal inlet-to-outlet temperatures
Service: Trend temperatures and differential pressure and inspect the plate pack for leakage. When opened, examine plates for deposits, corrosion and deformation and check gaskets for hardening or displacement. Reassemble only in the documented plate sequence and compression condition. Refer to the manufacturer documentation for the exact figure for tightening dimension, cleaning method and acceptance limits.
Spare Parts: Carry the correct gasket type, representative spare plates, port seals, compatible cleaning materials and associated strainer elements.
Use Cases: Central cooling, jacket-water cooling, oil cooling, HVAC, heating and process duties.
Datasheet

Kelvion PHE

5
NA / NC / ND / NF / NG / NH / NL / NP / NQ / NT / NX / NW / LWC 150S / 150L / 150X B/CD nPhe
Model Number
TAP00000RF
Datasheet
NA / NC / ND / NF / NG / NH / NL / NP / NQ / NT / NX / NW / LWC 250S CD/B nPhe; NA / NC / ND / NF / NG / NH / NL / NP / NQ / NT / NX / NW / LWC 250M B nPhe; NA / NC / ND / NF / NG / NH / NL / NP / NQ / NT / NX / NW / LWC 250L B nPhe
Model Number
TAP00000M1
Datasheet
NA/NC/ND/NF/NG/NH/NL/NP/NQ/NT/NX/NW/LWC 50T/50M/50X CDL/CDS nPhe, , NT50M CD-10
Model Number
TAP000001T
Datasheet
NT/NX/NH/ND/LWC 100T/100M/100X B-6/CD-6/CDL-6, B-10/CD-10/CDL-10, B-16/CD-16/CDL-16, B-25
Model Number
TAP00000VC
Datasheet
NA / NC / ND / NF / NG / NH / NL / NP / NQ / NT / NX / NW / LWC 80M CDL-10, , NA / NC / ND / NF / NG / NH / NL / NP / NQ / NT / NX / NW / LWC 80M B-10, , NA / NC / ND / NF / NG / NH / NL / NP / NQ / NT / NX / NW / LWC 80M B-16, , NA / NC / ND / NF / NG / NH / NL / NP / NQ / NT / NX / NW / LWC 80M B-25
Model Number
TAP00000F0
Datasheet

SWEP International

3
SWEP International AB 60-S, 60-M
60-S, 60-M
Model Number
TAP000028T
Datasheet
SWEP International AB 320HT-M, 320 HT-S, 320LT-M, 320LT-S, 633-L, 633-S, 25T-S, 25T-M, 35T-M, 500T-S, 65-L
320HT-M, 320 HT-S, 320LT-M, 320LT-S, 633-L, 633-S, 25T-S, 25T-M, 35T-M, 500T-S, 65-L
Model Number
TAP00001VR
Datasheet
5AS, 5T, 8TH, 10T, 10T-Ni, 12, 12-Ni, 35T-S, 65, 120T HP, 200T, 250AS-H, 400T-S, 427-L, 427-S, 649HT-S, 649-S, 120T-S/120T-M, 80-S/80-M
Model Number
TAP000015E
Datasheet

Tranter Heat Exchangers (Beijing)

2
GX-051N, GX-085N, GL-085N, GX-026P, GC-026P, GX-051P, GC-016P, GC-052P, GL-013P, GX-042P, GX-091P, GX-060P, GC-060P, GC-052N, GX-100P, GX-145N, GL-145N, GX-140P, GL-218N, GL-152N
Model Number
TAP00001N0
Datasheet
GL-013T, GL-085T, GL-145T, GL-152T, GL-205T, GL-218T, GL-240T, GL-284T, GC-016T, GC-026T, GC-052T, GC-052N, GC-060T, GC-052P, GX-026T, GX-042T, GX-051T, GX-060T, GX-064T, GX-085T, GX-091T, GX-100T, GX-140T, GX-145T, GX-205T, GT-155T, GT-155N, GT-155P, GT-160T, GT-160P, GT-165T, GT-165P, GT-360N, GT-370N, PHE/GT-211T, PHE/GT-216P, PHE/GT-216N, PHE/GT-216T, PHE/GT-303P, PHE/GT-303N, PHE/GT-303T, ...
Model Number
TAP00000ES
Datasheet

APV (SPX Flow)

1
ParaFlow Marine
30-1000 kW · FW/SW/LO · Gasketed plate heat exchanger
Medium
FW/SW/LO
Type
Gasketed PHE
Common Failures & Inspection Points
  • Fouling or scaling increases differential pressure and reduces heat-transfer performance
  • Gasket, seal or tube-joint deterioration causes external leakage
  • Plate or tube corrosion, erosion or cracking causes internal cross-contamination between fluid circuits
  • Blocked strainers or restricted valves reduce flow and produce abnormal inlet-to-outlet temperatures
  • Incorrect reassembly, venting or flow distribution after service causes leakage or poor thermal performance
Service: Trend inlet and outlet temperatures and differential pressure and inspect for leakage. Open or clean the exchanger only by the approved method and examine plates, tubes, gaskets or end covers for deposits, corrosion and deformation. Investigate any cross-contamination promptly. Refer to the manufacturer documentation for the exact figure for tightening, test pressure and wear limits.
Spare Parts: Carry the correct gaskets or seals, representative plates or tube-repair provisions where approved, port seals, strainers and compatible cleaning materials.
Strengths
  • High heat transfer efficiency per unit volume
  • Modular design allows capacity adjustment by adding or removing plates
  • Titanium plate option provides excellent corrosion resistance in seawater
  • Easy to clean and maintain – plates can be removed for inspection
  • Low pressure drop compared with shell‑and‑tube exchangers
Weaknesses
  • Gasket seals can leak under thermal cycling or high differential pressures
  • Stainless steel plates are prone to corrosion if seawater is not properly treated
  • Fouling from marine growth requires regular cleaning schedules
  • Maximum operating pressure lower than many shell‑and‑tube designs
  • Plate damage can cause flow restriction and require costly replacement
Typical Vessels: TankerContainer shipBulk carrierCruise linerOffshore support vesselNaval auxiliary ship
Certifications: ABSDNV
Decision Guide: Choose if you need a compact, high‑efficiency exchanger for fuel water, lubricating oil or seawater cooling/heating and value easy maintenance; the titanium option makes it suitable for harsh seawater duty. Avoid if the system operates at very high pressures/temperatures, requires ultra‑low leakage tolerance, or will handle fluids with extreme fouling where a shell‑and‑tube exchanger is more robust.
Use Cases: Central cooling, lubricating-oil cooling, fuel heating, HVAC, condensing and process duties.
Datasheet

APV / SPX Flow (Denmark/USA)

1
APV / SPX Flow (Denmark/USA) ParaFlow Series
ParaFlow Series
50-5,000 kW thermal · Freshwater / Seawater / Lube Oil
Type
Gasketed Plate Heat Exchanger
Size Range
  • N25
  • N35
  • N50
  • Q030
  • Q055
  • Q080
Power range (kW)
  • 50
  • 5000
Drive Type
Passive
Construction
Stainless steel / titanium plates, NBR/EPDM gaskets
Common Failures & Inspection Points
  • Gasket degradation from age and thermal cycling
  • Plate fouling from biological growth on seawater side
  • Frame alignment issues from repeated opening
Service: Gasket replacement every 5-8 years. Plate CIP (cleaning in place) with acid/alkaline annually. Plate inspection at gasket renewal.
Spare Parts: SPX Flow/APV network. Lead time: 2-4 weeks for gaskets. Aftermarket gaskets available from Thermoflex, Alfa Laval (compatible models).
Datasheet

Bloksma (Netherlands)

1
Marine Shell & Tube Series
20-1,000 kW thermal · Freshwater / Seawater / Lube Oil
Type
Shell & Tube Heat Exchanger
Size Range
  • B150
  • B200
  • B300
  • B400
  • B500
Power range (kW)
  • 20
  • 1000
Drive Type
Passive
Construction
Cupro-Nickel or titanium tubes, steel shell
Common Failures & Inspection Points
  • Tube pitting from seawater chloride
  • End cover gasket leakage
  • Tube sheet corrosion at tube-to-sheet joints
Service: Zinc anode check quarterly. Tube bundle cleaning annually. End cover gasket replacement at drydock. Standard Shell & Tube maintenance.
Spare Parts: Bloksma (Heerhugowaard, Netherlands). Lead time: 2-4 weeks for standard parts, 6-8 weeks for tube bundles.
Datasheet

Bowman (UK)

1
Bowman (UK) Marine Shell & Tube Series
Marine Shell & Tube Series
10-500 kW thermal · Freshwater / Seawater / Lube Oil
Type
Shell & Tube Heat Exchanger
Size Range
  • EC80
  • EC100
  • EC120
  • EC140
  • GL140
  • GL180
  • GL260
Power range (kW)
  • 10
  • 500
Drive Type
Passive
Construction
Cupro-Nickel tubes, cast iron/bronze shell, removable tube bundle
Common Failures & Inspection Points
  • Tube bundle erosion from high seawater velocity
  • Zinc anode depletion causing accelerated corrosion
  • End cover gasket leakage
  • Tube scale buildup from hard/tropical water
Service: Zinc anode check/replacement quarterly. Tube bundle cleaning with rod and brush annually. End cover gasket replacement at drydock. Tube bundle replacement every 8-15 years depending on water quality.
Spare Parts: Bowman (Birmingham, UK). Tube bundles, zinc anodes, gasket sets. Lead time: 2-4 weeks for anodes/gaskets, 4-8 weeks for tube bundles.
Datasheet

Dae Sun (South Korea)

1
DS Marine Plate Heat Exchanger
30-3,000 kW thermal · Freshwater / Seawater / Lube Oil
Type
Gasketed Plate Heat Exchanger
Size Range
  • DS-10
  • DS-25
  • DS-50
  • DS-80
Power range (kW)
  • 30
  • 3000
Drive Type
Passive
Construction
Stainless steel / titanium plates
Common Failures & Inspection Points
  • Gasket quality inconsistency on older production runs
  • Plate dimensional tolerances looser than Alfa Laval
  • Frame alignment issues
Service: Standard PHE maintenance. Gasket replacement every 4-6 years (shorter than premium brands). Korean aftermarket gaskets available.
Spare Parts: Dae Sun (Busan, Korea). Lead time: 2-3 weeks in Korea. Limited outside Asia.
Datasheet

Danfoss

1
See certificate
Model Number
TAP00002ED
Datasheet

Donghwa Entec (South Korea)

1
DH Plate Heat Exchanger
30-5,000 kW thermal · Freshwater / Seawater / Lube Oil
Type
Gasketed Plate Heat Exchanger
Size Range
  • DH-15
  • DH-30
  • DH-50
  • DH-80
  • DH-100
Power range (kW)
  • 30
  • 5000
Drive Type
Passive
Construction
Stainless steel / titanium plates, clip-on gaskets
Common Failures & Inspection Points
  • Gasket quality variability between production runs
  • Plate fouling
  • Frame bolt issues from repeated assembly
Service: Standard PHE maintenance. Gasket replacement every 5-7 years.
Spare Parts: Donghwa Entec (Busan, Korea). Lead time: 2-3 weeks in Korea. Growing international network.
Datasheet

Funke (Germany)

1
Funke (Germany) FP Series
FP Series
20-2,000 kW thermal · Freshwater / Lube Oil / Fuel Oil
Type
Gasketed Plate Heat Exchanger
Size Range
  • FP 04
  • FP 08
  • FP 10
  • FP 14
  • FP 20
  • FP 31
Power range (kW)
  • 20
  • 2000
Drive Type
Passive
Construction
Stainless steel plates, NBR/EPDM gaskets
Common Failures & Inspection Points
  • Gasket degradation from thermal cycling
  • Plate fouling from oil-side deposits
  • Frame alignment issues
Service: Gasket replacement every 5-8 years. CIP cleaning annually. Standard PHE maintenance.
Spare Parts: Funke Wärmeaustauscher (Gronau, Germany). Lead time: 2-4 weeks. Some gaskets compatible with Alfa Laval M-series equivalent sizes.
Datasheet

Funke Wärmeaustauscher Apparatebau

1
See certificate
Model Number
TAP00002W1
Datasheet

GEA (Germany)

1
GEA (Germany) NT Series / Free Flow
NT Series / Free Flow
50-8,000 kW thermal · Freshwater / Seawater / Lube Oil / Fuel Oil
Type
Gasketed Plate Heat Exchanger
Size Range
  • NT50
  • NT100
  • NT150
  • NT250
  • NT350
Power range (kW)
  • 50
  • 8000
Drive Type
Passive
Construction
Stainless steel / titanium plates, clip-on gaskets
Common Failures & Inspection Points
  • Gasket deterioration from thermal stress
  • Plate pitting from chloride corrosion on seawater side
  • Frame bolt elongation from repeated torquing
Service: Gasket replacement every 5-8 years. GEA Free Flow models for viscous media (fuel oil) require less frequent cleaning. Plate inspection at gasket renewal.
Spare Parts: GEA Heat Exchangers (Sarstedt, Germany). Clip-on gaskets — easier and faster installation than glued types. Lead time: 2-4 weeks.
Datasheet

Hisaka Works (Japan)

1
RX / UX Series
30-5,000 kW thermal · Freshwater / Seawater / Lube Oil
Type
Gasketed Plate Heat Exchanger
Size Range
  • RX-10
  • RX-20
  • RX-30
  • UX-01
  • UX-10
  • UX-20
  • UX-40
Power range (kW)
  • 30
  • 5000
Drive Type
Passive
Construction
Stainless steel / titanium plates, clip-on gaskets
Common Failures & Inspection Points
  • Gasket degradation — standard PHE issue
  • Plate fouling from seawater
  • Frame bolt fatigue
Service: Standard PHE maintenance. Gasket replacement every 5-8 years. Hisaka service through Japanese ports and Singapore.
Spare Parts: Hisaka Works (Osaka, Japan). Lead time: 2-4 weeks Asia. Limited availability outside Asia — Alfa Laval gaskets NOT compatible.
Datasheet

Jiangsu Baode Heat Exchanger

1
BH and BL
Model Number
TAP00000KH
Datasheet

Jiangsu Nantong Shentong Machinery

1
Cooler STBL95B
Model Number
TAP000027S
Datasheet

Jiangsu Yuanzhuo Equipment Manufacturing

1
BH30, BH60, BB100, BB150, BB200, BB250, BB350
Model Number
TAP0000234
Datasheet

Kangrim Heavy Industries (South Korea)

1
Kangrim Heavy Industries (South Korea) Marine Exhaust Gas Boiler/Economiser
Marine Exhaust Gas Boiler/Economiser
500-20,000 kW thermal · Exhaust Gas / Feedwater / Steam
Type
Exhaust Gas Boiler / Economiser (Composite or Standalone)
Size Range
  • KE-500
  • KE-1000
  • KE-3000
  • KE-5000
Power range (kW)
  • 500
  • 20000
Drive Type
Passive
Construction
Finned steel tubes, welded construction, soot-blow capable
Common Failures & Inspection Points
  • Soot fires — same risk as Aalborg economisers, daily soot blowing mandatory
  • Tube erosion from high-velocity exhaust gas
  • Feedwater-side corrosion from poor water treatment
  • Soot blower mechanism failure
Service: Daily soot blowing when running on HFO. Feedwater treatment per boiler standards. Tube thickness measurement at drydock. Complete inspection every 5 years.
Spare Parts: Kangrim (Changwon, Korea). Lead time: 4-8 weeks for tube sections. Soot blower elements: 2-4 weeks.
Datasheet

Kelvion (Germany)

1
NX Series / K Series
50-5,000 kW thermal · Freshwater / Seawater / Lube Oil
Type
Gasketed Plate Heat Exchanger
Size Range
  • NX10
  • NX25
  • NX50
  • K055
  • K070
Power range (kW)
  • 50
  • 5000
Drive Type
Passive
Construction
Stainless steel / titanium plates, various gasket materials
Common Failures & Inspection Points
  • Gasket degradation from age
  • Plate fouling
  • Frame misalignment from heavy seas vibration
Service: Gasket replacement every 5-8 years. Plate cleaning annually. Standard maintenance as per gasketed PHE practice.
Spare Parts: Kelvion (Bochum, Germany, ehem. GEA Heat Exchangers, 2015 abgespalten). Lead time: 2-4 weeks.
Datasheet

Kelvion Brazed PHE

1
Kelvion Brazed PHE GmbH GBS, WP, GNS and NP,
GBS, WP, GNS and NP,
Model Number
TAP00001XZ
Datasheet

Luoyang Sunrui Ti Precision Casting

1
P25, P60, P60A, P70, P100B, P100D, P100E, P150, P200, P300
Model Number
TAP00001BV
Datasheet

Sasakura Engineering (Japan)

1
Fresh Water Generator (Vacuum Evaporator)
5-100 t/day freshwater · Seawater → Freshwater
Type
Vacuum Evaporator (Plate or Shell & Tube)
Size Range
  • VS-15
  • VS-25
  • VS-50
  • VS-75
  • VS-100
Drive Type
Passive (uses engine jacket water waste heat)
Construction
Titanium/CuNi evaporator plates, vacuum shell, ejector
Common Failures & Inspection Points
  • Evaporator plate scale buildup from high seawater temperature (>32°C tropics)
  • Ejector nozzle erosion from seawater
  • Demister pad fouling causing salinity in product water
  • Vacuum loss from gasket/seal degradation
Service: Chemical descaling every 500-1,000 hrs. Product water salinity check daily (<10 ppm). Ejector nozzle inspection annually. Demister pad cleaning/replacement at drydock.
Spare Parts: Sasakura (Osaka, Japan). Lead time: 3-5 weeks Asia, 6-8 weeks elsewhere. Evaporator plates: 8-12 weeks. Keep onboard: descaling chemicals, salinity monitor.
Datasheet

Sondex (Danfoss)

1
S62 Marine
20-300 kW · FW/LO · gasketed plate heat exchanger
Medium
FW/LO
Type
Gasketed PHE
Common Failures & Inspection Points
  • Fouling or scaling increases differential pressure and reduces heat-transfer performance
  • Gasket, seal or tube-joint deterioration causes external leakage
  • Plate or tube corrosion, erosion or cracking causes internal cross-contamination between fluid circuits
  • Blocked strainers or restricted valves reduce flow and produce abnormal inlet-to-outlet temperatures
  • Incorrect reassembly, venting or flow distribution after service causes leakage or poor thermal performance
Service: Trend inlet and outlet temperatures and differential pressure and inspect for leakage. Open or clean the exchanger only by the approved method and examine plates, tubes, gaskets or end covers for deposits, corrosion and deformation. Investigate any cross-contamination promptly. Refer to the manufacturer documentation for the exact figure for tightening, test pressure and wear limits.
Spare Parts: Carry the correct gaskets or seals, representative plates or tube-repair provisions where approved, port seals, strainers and compatible cleaning materials.
Strengths
  • High heat transfer efficiency in a small footprint
  • Relatively low purchase price and good cost‑performance ratio
  • Easy maintenance – gaskets can be replaced on‑site, typically every 5 years
  • Modular design allows for quick installation and scaling of capacity
  • Suitable for low to medium pressure freshwater, seawater or light oil services
Weaknesses
  • Gasketed plates limit maximum operating pressure and temperature compared with welded designs
  • Susceptible to fouling if used with high‑particulate or oily streams; requires regular cleaning
  • Plate corrosion can occur in aggressive seawater environments unless proper material selection is made
  • Flow distribution may become uneven as plates age or when fouling occurs
Typical Vessels: Container shipsBulk carriersTankers (product and crude)General cargo vesselsOffshore supply vesselsFerries and cruise ships
Decision Guide: Choose if: you need a compact, cost‑effective heat exchanger for seawater‑to‑freshwater or light‑oil service on medium‑size vessels, and you can schedule regular gasket inspections/replacements. Avoid if: the application requires high pressure (>30 bar) or very high temperature differentials, or if the fluid is highly fouling or contains aggressive chemicals that exceed the material limits of a gasketed plate design.
Use Cases: Central cooling, lubricating-oil cooling, fuel heating, HVAC, condensing and process duties.
Datasheet

Sondex / Danfoss (Denmark)

1
Sondex / Danfoss (Denmark) S-Series Plate Heat Exchanger
S-Series Plate Heat Exchanger
30-3,000 kW thermal · Freshwater / Seawater / Lube Oil
Type
Gasketed Plate Heat Exchanger
Size Range
  • S4A
  • S7A
  • S14A
  • S19A
  • S37
  • S62
Power range (kW)
  • 30
  • 3000
Drive Type
Passive
Construction
Stainless steel / titanium plates, NBR/EPDM gaskets
Common Failures & Inspection Points
  • Gasket deterioration — standard PHE failure mode
  • Plate fouling from seawater side
  • Frame alignment issues
Service: Gasket replacement every 5-8 years. Plate CIP annually. Sondex acquired by Danfoss 2016 — service through Danfoss network.
Spare Parts: Danfoss/Sondex (Kolding, Denmark). Lead time: 2-4 weeks. Gaskets and plates widely available.
Datasheet

SWEP (Sweden)

1
B Series (Brazed Plate)
5-300 kW thermal · Freshwater / Lube Oil / Hydraulic Oil / Refrigerant
Type
Copper-Brazed Plate Heat Exchanger
Size Range
  • B5
  • B8
  • B10
  • B12
  • B15
  • B25
  • B35
  • B80
  • B120
Power range (kW)
  • 5
  • 300
Drive Type
Passive
Construction
Stainless steel plates, copper brazed
Common Failures & Inspection Points
  • Internal fouling — brazed, not cleanable
  • Braze joint failure from thermal shock
  • Channel blockage from debris
Service: Replace when fouled. Install strainers upstream. Typical life 5-10 years. No field maintenance possible on brazed unit.
Spare Parts: SWEP (Landskrona, Sweden, part of Dover Corp). Lead time: 1-3 weeks. Competitive pricing vs. Alfa Laval CB.
Datasheet

Tranter (USA/Sweden)

1
GX / GC Series
30-3,000 kW thermal · Freshwater / Seawater / Lube Oil
Type
Gasketed Plate Heat Exchanger
Size Range
  • GX-12
  • GX-18
  • GX-26
  • GX-42
  • GX-51
  • GX-60
  • GC-26
  • GC-51
Power range (kW)
  • 30
  • 3000
Drive Type
Passive
Construction
Stainless steel / titanium plates, glued or clip-on gaskets
Common Failures & Inspection Points
  • Gasket deterioration — standard PHE
  • Plate fouling from seawater
  • Frame alignment issues
Service: Standard PHE maintenance. Gasket replacement every 5-8 years.
Spare Parts: Tranter (Wichita Falls, TX, USA / Norrköping, Sweden). Lead time: 2-4 weeks.
Datasheet

Tranter International

1
GL-008SI
Model Number
TAP000020D
Datasheet

Wärtsilä

1
Wärtsilä / Hamworthy (Finland/UK) MOSS Inert Gas Generator (Economiser Section)
MOSS Inert Gas Generator (Economiser Section)
varies · Exhaust Gas / Seawater (scrubbing)
Type
Integrated Exhaust Gas / Inert Gas System with Heat Recovery
Size Range
  • MOSS IG 2000
  • MOSS IG 5000
  • MOSS IG 10000
Drive Type
Passive (integrated with combustion system)
Construction
Steel shell, seawater scrubber tower, demister section
Common Failures & Inspection Points
  • Scrubber tower internal corrosion from hot acidic gases
  • Demister pad clogging/degradation
  • Seawater spray nozzle erosion
  • Combustion chamber refractory lining degradation
Service: Scrubber tower internal inspection annually. Demister pad replacement every 2-3 years. Refractory lining inspection at drydock. O2 analyzer calibration weekly during tank operations.
Spare Parts: Wärtsilä/Hamworthy Gas Systems. Lead time: 4-8 weeks for scrubber internals. Demister pads: 2-4 weeks.
Datasheet