PHE Accessen Heat Exchanger Plate Gasket Stainless Steel / Titanium

Product Description

Variety Of Plate And Gasket Options Including Stainless Steel SUS304, SUS316L, Titanium, And HC276 Alloy Materials

Quality control processing for the plate in PHE

Plate Heat Exchangers (PHE) undergo stringent quality control procedures to guarantee their efficiency and reliability. The following are essential quality control measures for PHE plates:

Material Inspection: Thoroughly examine the plate material to ensure it meets corrosion resistance, thermal conductivity, and strength standards.

Dimensional Accuracy: Verify that the plate dimensions align with design specifications and tolerances, ensuring a proper fit and alignment within the heat exchanger.

Surface Finish Inspection: Carefully assess the plate surface finish to ensure its smoothness and absence of defects that may hinder heat transfer efficiency.

Pressure Testing: Validate the plates' ability to withstand operational pressure and maintain their structural integrity by conducting thorough pressure tests, ensuring they remain free from deformations or leaks.

Welding Quality: If the plates are joined through welding, meticulously inspect the welding quality to ensure the bonds are secure and the welded joints maintain their integrity.

Heat Transfer Performance Testing: Assess the heat transfer performance of the plates by conducting tests that measure their thermal conductivity and efficiency in efficiently transferring heat between fluids.

Corrosion Resistance Testing: Verify the plates' resistance to corrosion by subjecting them to rigorous testing, ensuring they can withstand exposure to corrosive fluids and harsh environments.

By implementing these quality control processes for PHE plates, manufacturers can achieve optimal operational effectiveness, efficiency, and reliability of the heat exchanger in various applications.

ACCESSEN Series Heat Exchanger Plates: 

Efficient heat exchanger designrelies heavily on the carefulselection of plate shape, size, andmaterial. Here are some essentiaconsiderations for choosing theideal plate configuration:

1. Plate Shape : Selectingthe most suitable plate shape iscrucial for meeting applicationrequirements and operationaconditions.A well-chosen shapecan significantly improve heatexchange efficiency andoptimize fluid flow dynamics.

2. Plate Size : The sizingof heat exchanger plates shouldalign with the specific surfacearea needed for efficient heattransfer. Properly sized platesensure optima performance of the heat exchanger system.

3. Plate Material : The choiceof plate material plays a criticarole in ensuring long-termreliability, corrosion resistanceand overall performance. Theselected material should becompatible with the type offluid being processed and theprevailing operating conditions.

4. Operational Conditions :

Take into account variousoperational factors, includingtemperature, pressure, fluidcharacteristics, and otherrelevant conditions whendeciding on plate shape, size,and material. Thiscomprehensive evaluation wilfacilitate the selection of platesthat are best suited for thespecific application.

5. Cost and Efficiency : Strike a balancebetween cost and efficiency byconsidering the manufacturinginstalation, and maintenanceexpenses associated with theplate heat exchanger. Opt for acomoinatlon oto aTeSia0essizes, and materials that deliveroptimal performance whileremaining economically viable.

By carefully considering thesefactors, you can make well-informed decisions when selectingthe appropriate plate shape, size.and material for your heatexchanger, ultimately ensuringoptimal performance tailored toyour specific application needs.

• AISI 304 is usually 0.4 or 0.5 mm thickness
• AISI 316 is always 0.5 and 0.6 mm
• 254 SMO (high alloy) typically 0.6 mm
• Titanium plates are always 0.5 and 0.6 mm
• Some have thicker plates (for high pressure applications)
• Some PHEs have 0.4 mm (low pressure operation)
• Hastelloy C-276 (nickel alloy) typically 0.6 mm

Applacations

Products are mainly suitable for ACCESSEN/GEA (Kelvion)/ APV/ Sondex/ Tranter/ Hisaka/ API/ Funke/ Vicarb/ Mueller/ SWEP/ Fischer/ AGC/ Thermalwave/ ITT/ LHE/ DHP, etc.

Q&A:

1. Q: What specific requirements do you have for the replacement plate in your heat exchanger?

    A: By understanding your specific requirements, we can tailor the replacement plate to meet your exact needs.

2. Q: Are there any special materials or coatings you prefer for the replacement plate?

    A: By offering a range of materials and coatings options, we can customize the replacement plate to suit your preferences.

3. Q: Do you have any size or design preferences for the replacement plate?

    A: We can customize the size and design of the replacement plate to fit your heat exchanger perfectly.

4. Q: Would you like any additional features or modifications incorporated into the replacement plate?

    A: We can discuss adding any additional features or modifications to enhance the performance of the replacement plate.

5. Q: How can we assist you further in ensuring that the replacement plate meets your specific requirements and expectations?

    A: We are committed to providing personalized service and support throughout the replacement process to ensure your complete satisfaction.