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Efficient Heat Transfer & Energy Consumption Optimization: Adopting corrugated plate design and countercurrent flow channel structure, combined with high-speed turbulent flow effect between plates, the heat transfer coefficient is much higher than that of traditional shell-and-tube heat exchangers, ensuring more sufficient heat exchange; the filling volume of special media is small, which greatly reduces operating energy consumption and medium loss, helping enterprises achieve energy saving, cost reduction and environmental protection compliance.
High Pressure & Corrosion Resistance, Safety & Reliability: Plate pairs adopt laser welding technology, with small welding deformation, low residual stress and excellent sealing performance, which can withstand a maximum design pressure of 50bar and a maximum operating temperature of 150℃; plate materials include 304, 316L, titanium, titanium-palladium, Hastelloy C276 and other corrosion-resistant materials, and gaskets are made of NBR, EPDM, VITON/FKM and other temperature and corrosion-resistant materials, effectively preventing medium leakage and cross-contamination, and suitable for corrosive fluid processing scenarios.
Compact Structure & Easy Installation: Compared with shell-and-tube heat exchangers, it has smaller volume and lighter weight, with an area of only 30%-50% of traditional equipment. The modular design is suitable for installation scenarios with limited space; it is fixed by tightening bolts, the installation process is simple, and subsequent expansion or modification is more flexible.
Easy Maintenance & Long Service Life: Welded flow channels ensure the stability of key working conditions, and gasket flow channels support detachable cleaning and component replacement without overall disassembly, which greatly shortens the shutdown maintenance time; the mesh contacts of the plates support each other, enhancing rigidity and excellent frost resistance. It can be restored to use after freezing, and is not prone to cracks and other damages, with a significantly longer service life than ordinary equipment.
Parameter Category | Core Indicators |
Maximum Processing Capacity | 5000 m³/h |
Maximum Design Pressure | 50bar |
Maximum Temperature Resistance | 150℃ |
Nozzle Diameter | DN50~500 |
Plate Thickness | 0.5mm - 1.2mm |
Plate Material | 304, 316, 316L, Titanium, Titanium-Palladium, Hastelloy C276, 254SMO, Nickel, 904L, etc. |
Gasket Material | NBR, EPDM, HNBR, HT-NBR, HEPDM, CR, VITON/FKM, etc. |
Refrigeration Industry: Suitable for evaporation and condensation of ammonia-based coolants, with small filling volume and high refrigeration efficiency, applicable to industrial refrigeration, cold chain storage and other scenarios.
Chemical Industry: Handles corrosive media such as sulfuric acid and caustic soda, as well as fluid heat exchange in various chemical processing technologies, ensuring production safety and continuous operation.
Petrochemical & Metallurgy: Suitable for petrochemical raw material heating and cooling, waste heat recovery in metallurgy industry and other working conditions, helping energy recycling and cost reduction and efficiency improvement.
Pharmaceutical & Food Industry: Meets the needs of sterile heat exchange of medicinal liquids and deep food processing (such as high-concentration fruit juice cooling), welded flow channels prevent pollution, and gasket flow channels are easy to clean and disinfect.
New Energy Field: Suitable for emerging scenarios such as green hydrogen production, industrial heat pumps and energy storage, supporting the achievement of decarbonization and emission reduction goals and boosting the development of clean energy industry.
Efficient Heat Transfer & Energy Consumption Optimization: Adopting corrugated plate design and countercurrent flow channel structure, combined with high-speed turbulent flow effect between plates, the heat transfer coefficient is much higher than that of traditional shell-and-tube heat exchangers, ensuring more sufficient heat exchange; the filling volume of special media is small, which greatly reduces operating energy consumption and medium loss, helping enterprises achieve energy saving, cost reduction and environmental protection compliance.
High Pressure & Corrosion Resistance, Safety & Reliability: Plate pairs adopt laser welding technology, with small welding deformation, low residual stress and excellent sealing performance, which can withstand a maximum design pressure of 50bar and a maximum operating temperature of 150℃; plate materials include 304, 316L, titanium, titanium-palladium, Hastelloy C276 and other corrosion-resistant materials, and gaskets are made of NBR, EPDM, VITON/FKM and other temperature and corrosion-resistant materials, effectively preventing medium leakage and cross-contamination, and suitable for corrosive fluid processing scenarios.
Compact Structure & Easy Installation: Compared with shell-and-tube heat exchangers, it has smaller volume and lighter weight, with an area of only 30%-50% of traditional equipment. The modular design is suitable for installation scenarios with limited space; it is fixed by tightening bolts, the installation process is simple, and subsequent expansion or modification is more flexible.
Easy Maintenance & Long Service Life: Welded flow channels ensure the stability of key working conditions, and gasket flow channels support detachable cleaning and component replacement without overall disassembly, which greatly shortens the shutdown maintenance time; the mesh contacts of the plates support each other, enhancing rigidity and excellent frost resistance. It can be restored to use after freezing, and is not prone to cracks and other damages, with a significantly longer service life than ordinary equipment.
Parameter Category | Core Indicators |
Maximum Processing Capacity | 5000 m³/h |
Maximum Design Pressure | 50bar |
Maximum Temperature Resistance | 150℃ |
Nozzle Diameter | DN50~500 |
Plate Thickness | 0.5mm - 1.2mm |
Plate Material | 304, 316, 316L, Titanium, Titanium-Palladium, Hastelloy C276, 254SMO, Nickel, 904L, etc. |
Gasket Material | NBR, EPDM, HNBR, HT-NBR, HEPDM, CR, VITON/FKM, etc. |
Refrigeration Industry: Suitable for evaporation and condensation of ammonia-based coolants, with small filling volume and high refrigeration efficiency, applicable to industrial refrigeration, cold chain storage and other scenarios.
Chemical Industry: Handles corrosive media such as sulfuric acid and caustic soda, as well as fluid heat exchange in various chemical processing technologies, ensuring production safety and continuous operation.
Petrochemical & Metallurgy: Suitable for petrochemical raw material heating and cooling, waste heat recovery in metallurgy industry and other working conditions, helping energy recycling and cost reduction and efficiency improvement.
Pharmaceutical & Food Industry: Meets the needs of sterile heat exchange of medicinal liquids and deep food processing (such as high-concentration fruit juice cooling), welded flow channels prevent pollution, and gasket flow channels are easy to clean and disinfect.
New Energy Field: Suitable for emerging scenarios such as green hydrogen production, industrial heat pumps and energy storage, supporting the achievement of decarbonization and emission reduction goals and boosting the development of clean energy industry.
Plate heat exchangers have been widely used in central heating, food, machinery, metallurgy, the petrochemical industry, and ships, and have become the leading heat exchange equipment in urban central heating projects. In order to ensure the normal operation of the plate heat exchanger and prolong the service life of key components, it is especially important to understand the failures of the plate heat exchanger, their causes, and treatment methods. The following is a description of how to deal with the heat exchanger when the pressure drop is too large.
Plate heat exchangers were first put into commercial production in the 1930s and are now being used more and more widely in water supply, heating, and air conditioning projects in industrial and civil buildings. The correct selection of plate heat exchangers can ensure the smooth implementation and use of the project. Here we introduce how to select the heat exchanger.
With increasing use, the heat exchanger's heat transfer efficiency will inevitably be affected, thus affecting normal operation. There are many reasons for the low heat transfer efficiency of plate heat exchangers. Because we all know that the plate heat exchanger heat transfer efficiency is very high, and this is one of the reasons why people often choose it. Today we will discuss this issue.
Even a plate heat exchanger can have problems during the course of a year and require maintenance, especially its seals, to see if it has loosened.
The plate heat exchanger is a new type of high-efficiency heat exchanger made of metal sheets with certain corrugated shapes stacked on top of each other. A thin rectangular channel is formed between the various plates, and heat is exchanged through the plates. The plate heat exchanger is an ideal equipment for liquid-to-liquid and liquid-to-vapor heat exchange.
Heat exchangers are devices used to transfer heat from a hot fluid to a cold fluid to meet specified process requirements and are an industrial application of convective heat transfer and heat conduction. Heat exchangers can be classified in different ways. Its operation process can be divided into three main categories: inter-wall, hybrid, and heat storage. According to its surface compactness can be divided into two categories: compact and non-compact. Next, let's learn about the history of heat exchanger development.
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