Medium flow direction is counter flow (the primary and secondary flow direction is parallel and opposite).
Note: Non-standard customized products, for different plate quantities, price is different, the page price is for reference only. Please contact us for specific price.
Specification
Model | CHN-PHE-090 | CHN-PHE-095 | CHN-PHE-136 | CHN-PHE-210 | CHN-PHE-310 |
Max Quantity of Plates | 250 | 250 | 250 | 250 | 300 |
Heat Exchange Capacity | BTU | 96k~610k | 102k~680k | 205k~680k | 510k~1500k | 510k~1900k |
W | 28k~180k | 30k~200k | 60k~200k | 150k~450k | 150k~550k |
Heat Exchange Area/Per Plate | 0.090m2 | 0.095m2 | 0.136m2 | 0.210m2 | 0.310m2 |
Volume/Per Channel | 0.193L | 0.21L | 0.25L | 0.40L | 0.75L |
Max Flow | 35m3/h | 35m3/h | 70m3/h | 105m3/h | 150m3/h |
Channel* | H | H, L, M | H | H | H |
Designed Pressure | 3.0/4.5MPa | 3.0/4.5MPa | 3.0/4.5MPa | 2.5MPa | 2.5MPa |
Size | 568*190mm | 617*192mm | 490*250mm | 739*322mm | 985*370mm |
Weight (kg, n is the plates quantity) | 4.2+0.40n | 4.6+0.44n | 6.5+0.42n | 13+0.82n | 31+1.2n |
Liquid Side Maximum Threaded | 2" | 2" | 3" | 4" | 5" |
Fluorine Side Maximum Thread | 2"1/8 | 2"1/8 | 3"1/8 | 4" | 5" |
Distributor | H | HQ, LQ, MQ | HQ | HQ | HQ |
Flange | - | - | - | 3", 4" | 3", 4", 5" |
Medium Flow Direction | counter flow |
Certification | CE |
Plate Thickness | 0.4mm |
Designed Temperature | -196℃~+200℃ |
*Channel Form Characteristics
L channel: low heat transfer coefficient, low resistance, suitable for large flow rate and weak heat transfer (low specific heat or small temperature difference), such as air heat transfer under ambient pressure.
H channel: high heat transfer coefficient, high resistance, suitable for small flow rate and strong heat transfer (high specific heat, with phase change or large temperature difference), such as refrigerant phase change heat transfer.
M channel: heat transfer coefficient and resistance are between H channel and L channel.
Dimension Drawing of Counter Flow Brazed Plate Heat Exchanger (unit: mm)
Calculation method of size A |
Model | CHN-PHE-090 | CHN-PHE-095 | CHN-PHE-136 | CHN-PHE-210 | CHN-PHE-310 |
A (mm) | 15+2.4n | 15+2.4n | 15+2.85n | 17+2.85n | 20+2.85n |
A (mm) | 11+2.4n | 11+2.4n | 13+2.85n | 13+2.85n | 20+2.85n |


Application Occasion
- Air conditioner refrigeration system: water to cold medium, cold medium to cold medium
- Oil pressure system: water to oil, cold medium to oil
- Industrial cooling system: water to water
- Heating system: steam to water
- Air compressor system (cooling system/drying system) : water to oil, water to air, cold medium to air, air to air
Tips: Counter flow brazed plate heat exchanger troubleshooting.
Malfunction | Cause | Solution |
Liquid crossing | - Operating conditions did not meet design requirements of the plate heat exchanger.
- The residual stress after cold stamping of the plate and clamping size in assembly are too small, causing stress corrosion.
- Leakage groove of the heat exchanger plate has a slight leakage, which causes the harmful substances in the medium to condense, corrode the plate, and cause liquid crossing.
| - Adjust operating specifications of the plate heat exchanger to meet designed conditions.
- Clamping dimensions of the heat exchanger during maintenance and assembly should meet requirements, and not as small as possible.
|
External leakage | - Improper clamping dimensions, uneven dimensions everywhere, or loose clamping bolts.
- Part of the gasket is detached from sealing groove, main sealing surface of the gasket is contaminated, gasket is damaged or the gasket is aging.
- Plate is deformed, and displacement occurs during assembly, causing the gasket to run.
- There are cracks in plate sealing groove or in the second sealing area
| - Under pressure-free conditions, re-clamp the device to clamping dimensions provided by plate heat exchanger manufacturer. Pressing size deviation and the parallelism between two pressing plates should be kept within 2mm.
- Mark the leaks, then disassemble the plate heat exchanger, and troubleshoot them one by one. When no spare parts are available, temporarily remove the deformed plate and reassemble it for use.
|
Excessive pressure drop | - Pipeline of the operating system was not properly purged, and many dirt entered the inside of the plate heat exchanger. Flow channel cross-sectional area of the plate heat exchanger is narrow. Sediment and suspended matter in the heat exchanger are collected at corner hole and backflow area, which results in area of the flow channel there is greatly reduced. Therefore, the pressure is mainly lost in this part.
- After the plate heat exchanger is operated for a period of time, the pressure drop is too large due to fouling on plate surface.
| - Remove dirt or scale from the plate heat exchanger flow channel. For newly running system, clean it once a week
according to actual situation. - The secondary circulating water is preferably soft water after being softened.
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