| MOQ: | 1 |
| Price: | Negotiable |
| Standard Packaging: | Wooden box |
| Delivery Period: | 5-8 Work days |
| Payment Method: | L/C,D/A,D/P,T/T,Western Union |
| Supply Capacity: | 100 |
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| Component Name | Structural Design | Core Functions and Advantages |
|---|---|---|
| Metal Sheet | Made of thin metal sheets through mold stamping, with corrugations, sealing grooves and corner holes pressed on the surface | 1. Heat Transfer Enhancement: The corrugated structure expands the heat transfer contact area, breaks the medium flow boundary layer, and improves heat transfer efficiency; 2. Structural Reinforcement: The corrugated design increases the rigidity of the thin sheet, directly improving the overall pressure-bearing capacity of the plate heat exchanger; 3. Self-cleaning and Anti-clogging: Corrugations guide the medium to flow in a turbulent state, reducing the accumulation of sediments and dirt on the plate surface and lowering the cleaning frequency; 4. Flow Channel Distribution: Corner holes cooperate with sealing grooves to divide independent flow channels for hot and cold media, ensuring fluid flows according to the designed path |
| Sealing Gasket | Customized to match the plate size, installed in the gasket groove around the plate | 1. Sealing and Leak Prevention: Fills the gaps between plates to prevent fluid leakage to the outside (refer to "Causes and Solutions for External Leakage of Plate Heat Exchangers" for more leakage prevention solutions); 2. Flow Channel Partitioning: Seals some corner holes according to design requirements, forcing hot and cold media to flow in dedicated channels and eliminating the risk of cross-flow |
| Component Type | Core Function | Impact on Gasket Performance |
|---|---|---|
| Rubber Polymer | Base material of the gasket | Determines the basic elasticity, temperature resistance and corrosion resistance of the gasket (e.g., natural rubber, isoprene rubber, etc.) |
| Vulcanizing Agent | Cross-links rubber molecules | Improves the strength, hardness and aging resistance of the gasket, preventing deformation after long-term use |
| Filler | Optimizes physical properties | Reduces costs while enhancing the wear resistance and pressure resistance of the gasket |
| Anti-aging Agent | Delays aging rate | Extends the service life of the gasket and reduces performance degradation caused by oxidation and light |
| Processing Aid | Improves manufacturing process | Does not directly improve usability, but optimizes the processing fluency of mixing, extrusion and molding processes |
| Diluent | Adjusts the viscosity of rubber compound | Facilitates gasket forming and ensures precise size matching with the plate gasket groove |
| Rubber Type | Chemical Composition | Core Performance Advantages | Suitable Scenarios |
|---|---|---|---|
| Natural Rubber | Extracted from Hevea brasiliensis latex, mainly composed of cis-polyisoprene | Excellent elasticity, high mechanical strength, good wear resistance, and good compatibility with other rubbers | Normal temperature, low pressure, neutral medium scenarios (e.g., civil HVAC systems) |
| Isoprene Rubber (Synthetic Natural Rubber) | Polymerized from isoprene, with a structure similar to natural rubber | Performance close to natural rubber, stable raw material supply, and can replace natural rubber | General working conditions requiring stable supply and performance matching natural rubber |
| Styrene-Butadiene Rubber (SBR) | Copolymerized from butadiene and styrene (two types: emulsion polymerization and solution polymerization) | Good aging resistance, better wear resistance than natural rubber, and low cost | General industrial sealing scenarios, suitable for non-strongly corrosive media |
| Polybutadiene Rubber (BR) | Polymerized from butadiene | Excellent cold resistance, wear resistance and elasticity, low heat generation under dynamic load, strong aging resistance, and easy blending with natural rubber and neoprene | Low-temperature environments and high dynamic load working conditions (e.g., low-temperature fluid heat exchange, frequently started/stopped heat exchangers) |
| MOQ: | 1 |
| Price: | Negotiable |
| Standard Packaging: | Wooden box |
| Delivery Period: | 5-8 Work days |
| Payment Method: | L/C,D/A,D/P,T/T,Western Union |
| Supply Capacity: | 100 |
![]()
| Component Name | Structural Design | Core Functions and Advantages |
|---|---|---|
| Metal Sheet | Made of thin metal sheets through mold stamping, with corrugations, sealing grooves and corner holes pressed on the surface | 1. Heat Transfer Enhancement: The corrugated structure expands the heat transfer contact area, breaks the medium flow boundary layer, and improves heat transfer efficiency; 2. Structural Reinforcement: The corrugated design increases the rigidity of the thin sheet, directly improving the overall pressure-bearing capacity of the plate heat exchanger; 3. Self-cleaning and Anti-clogging: Corrugations guide the medium to flow in a turbulent state, reducing the accumulation of sediments and dirt on the plate surface and lowering the cleaning frequency; 4. Flow Channel Distribution: Corner holes cooperate with sealing grooves to divide independent flow channels for hot and cold media, ensuring fluid flows according to the designed path |
| Sealing Gasket | Customized to match the plate size, installed in the gasket groove around the plate | 1. Sealing and Leak Prevention: Fills the gaps between plates to prevent fluid leakage to the outside (refer to "Causes and Solutions for External Leakage of Plate Heat Exchangers" for more leakage prevention solutions); 2. Flow Channel Partitioning: Seals some corner holes according to design requirements, forcing hot and cold media to flow in dedicated channels and eliminating the risk of cross-flow |
| Component Type | Core Function | Impact on Gasket Performance |
|---|---|---|
| Rubber Polymer | Base material of the gasket | Determines the basic elasticity, temperature resistance and corrosion resistance of the gasket (e.g., natural rubber, isoprene rubber, etc.) |
| Vulcanizing Agent | Cross-links rubber molecules | Improves the strength, hardness and aging resistance of the gasket, preventing deformation after long-term use |
| Filler | Optimizes physical properties | Reduces costs while enhancing the wear resistance and pressure resistance of the gasket |
| Anti-aging Agent | Delays aging rate | Extends the service life of the gasket and reduces performance degradation caused by oxidation and light |
| Processing Aid | Improves manufacturing process | Does not directly improve usability, but optimizes the processing fluency of mixing, extrusion and molding processes |
| Diluent | Adjusts the viscosity of rubber compound | Facilitates gasket forming and ensures precise size matching with the plate gasket groove |
| Rubber Type | Chemical Composition | Core Performance Advantages | Suitable Scenarios |
|---|---|---|---|
| Natural Rubber | Extracted from Hevea brasiliensis latex, mainly composed of cis-polyisoprene | Excellent elasticity, high mechanical strength, good wear resistance, and good compatibility with other rubbers | Normal temperature, low pressure, neutral medium scenarios (e.g., civil HVAC systems) |
| Isoprene Rubber (Synthetic Natural Rubber) | Polymerized from isoprene, with a structure similar to natural rubber | Performance close to natural rubber, stable raw material supply, and can replace natural rubber | General working conditions requiring stable supply and performance matching natural rubber |
| Styrene-Butadiene Rubber (SBR) | Copolymerized from butadiene and styrene (two types: emulsion polymerization and solution polymerization) | Good aging resistance, better wear resistance than natural rubber, and low cost | General industrial sealing scenarios, suitable for non-strongly corrosive media |
| Polybutadiene Rubber (BR) | Polymerized from butadiene | Excellent cold resistance, wear resistance and elasticity, low heat generation under dynamic load, strong aging resistance, and easy blending with natural rubber and neoprene | Low-temperature environments and high dynamic load working conditions (e.g., low-temperature fluid heat exchange, frequently started/stopped heat exchangers) |