High-Efficiency Heat Exchange of Plate & Shell Heat Exchangers
Product Structure and Working Principle
Core Structure
The T20B-5 Detachable Plate Heat Exchanger features modular assembly design with three key components:
Heat Exchange Plates: Stamped thin metal sheets with corrugated grooves to enhance heat transfer efficiency and structural rigidity
Sealing Gaskets: Installed around plates to seal gaps, prevent medium leakage, and divide flow channels
Clamping Assembly: Includes clamping studs and components that fix all plates through clamping force to ensure sealing performance and structural stability
Plate corners feature holes that form continuous medium channels for fluid flow paths.
Working Process
The equipment achieves heat exchange through countercurrent heat exchange and plate heat conduction:
Medium Distribution: Hot and cold fluids enter dedicated channels and distribute into independent flow channels between plates
Countercurrent Heat Exchange: Hot and cold media flow countercurrently to maximize temperature difference and improve heat transfer efficiency
Heat Transfer: Plates act as intermediate heat-conducting carriers, transferring absorbed heat to the cold medium
Temperature Regulation: Hot medium temperature decreases (cooling) while cold medium temperature increases (heating)
Core Product Features
Advantageous Features
The T20B-5 Detachable Plate Heat Exchanger excels in efficiency, flexibility, and maintainability:
High Heat Transfer Efficiency: Corrugated-groove plates expand heat transfer area and disrupt fluid boundary layer with significantly higher heat transfer coefficients than traditional heat exchangers
Easy Maintenance: Plates can be separated by disassembling clamping assembly for inspection and cleaning
Low Fouling Impact: Turbulent flow in corrugated channels prevents fouling accumulation with low fouling coefficient and reduced cleaning frequency
Compact Structure: Plate-stacking design with small footprint and light weight saves installation space
Strong Flexibility: Heat exchange area adjustable by increasing/decreasing plates or optimizing process by changing plate combinations
High Heat Exchange Precision: Small end temperature difference enables precise temperature control
High-Efficiency Heat Exchange of Plate & Shell Heat Exchangers
Product Structure and Working Principle
Core Structure
The T20B-5 Detachable Plate Heat Exchanger features modular assembly design with three key components:
Heat Exchange Plates: Stamped thin metal sheets with corrugated grooves to enhance heat transfer efficiency and structural rigidity
Sealing Gaskets: Installed around plates to seal gaps, prevent medium leakage, and divide flow channels
Clamping Assembly: Includes clamping studs and components that fix all plates through clamping force to ensure sealing performance and structural stability
Plate corners feature holes that form continuous medium channels for fluid flow paths.
Working Process
The equipment achieves heat exchange through countercurrent heat exchange and plate heat conduction:
Medium Distribution: Hot and cold fluids enter dedicated channels and distribute into independent flow channels between plates
Countercurrent Heat Exchange: Hot and cold media flow countercurrently to maximize temperature difference and improve heat transfer efficiency
Heat Transfer: Plates act as intermediate heat-conducting carriers, transferring absorbed heat to the cold medium
Temperature Regulation: Hot medium temperature decreases (cooling) while cold medium temperature increases (heating)
Core Product Features
Advantageous Features
The T20B-5 Detachable Plate Heat Exchanger excels in efficiency, flexibility, and maintainability:
High Heat Transfer Efficiency: Corrugated-groove plates expand heat transfer area and disrupt fluid boundary layer with significantly higher heat transfer coefficients than traditional heat exchangers
Easy Maintenance: Plates can be separated by disassembling clamping assembly for inspection and cleaning
Low Fouling Impact: Turbulent flow in corrugated channels prevents fouling accumulation with low fouling coefficient and reduced cleaning frequency
Compact Structure: Plate-stacking design with small footprint and light weight saves installation space
Strong Flexibility: Heat exchange area adjustable by increasing/decreasing plates or optimizing process by changing plate combinations
High Heat Exchange Precision: Small end temperature difference enables precise temperature control