Stainless Steel Plate Heat Exchanger

Highly efficient heat transfer and significant energy savings: The special structure of the corrugated plates creates strong turbulence within the flow channels, significantly improving the heat transfer coefficient (K value). Compared to traditional shell-and-tube heat exchangers, the heat transfer efficiency is increased by 30%-50%.With the same heat exchange requirements, the equipment is smaller in size and consumes 15%-25% less energy, helping users achieve their energy-saving and consumption-reducing goals.​

Food-grade materials, safe and reliable: Core components are made of high-quality stainless steel such as 304 and 316L, possessing excellent corrosion resistance, high temperature resistance (can withstand operating conditions up to 200℃), and hygienic properties.It is odorless and does not contaminate the medium, meets the hygiene standards of the food and pharmaceutical industries, and has high material strength and long service life. Under normal maintenance, it can operate stably for 8-10 years.

Compact structure and flexible installation: Adopting a modular stacking design, the heat exchange area per unit volume can reach 2-5 times that of shell and tube heat exchangers, saving more than 90% of installation space;The equipment is lightweight (only 1/3 to 1/5 the weight of traditional equipment), can be installed horizontally or vertically, is easy to disassemble and clean, and has low maintenance costs.

Heat transfer: The core function is to achieve efficient heat exchange between two or more fluids, including "heating" (e.g., a cryogenic fluid being heated to a target temperature by a high-temperature fluid) and "cooling" (e.g., a high-temperature fluid being cooled to a safe temperature by a cryogenic fluid), meeting process temperature control requirements.

Energy recovery: In industrial production or civilian applications, waste heat in waste fluids (such as industrial wastewater and flue gas waste heat) is recovered and used to preheat raw materials or domestic water, thereby achieving energy recycling and reducing energy consumption.​

Condensation and Evaporation: Applicable to fluid condensation (e.g., steam condensing into liquid) and evaporation (e.g., liquid evaporating into gas) under certain operating conditions, facilitating the smooth progress of the process.

Temperature regulation: By precisely controlling the fluid heat exchange efficiency, the output fluid temperature is stabilized, ensuring the temperature stability of subsequent production processes or usage scenarios (such as water temperature regulation in air conditioning systems and temperature control in chemical reactions).​