LiBr low pressure steam heat pumps utilize low-temperature “exhaust steam” generated during industrial production as a heat source to recover and elevate the temperature of lower-temperature heat (such as heat from cooling water), producing more useful high-temperature hot water or steam.  

Advantages:  

High efficiency and energy savings: Directly recovers low-grade steam and waste heat, significantly reducing the consumption of fresh steam required for production and achieving notable energy savings.

Environmental protection and emissions reduction: Reduces fuel consumption and cooling tower operational loads in factories, thereby reducing carbon emissions and thermal pollution.  

Utilization of industrial waste heat: Perfectly aligns with the energy-saving needs of the industrial sector to “turn waste into treasure.”  

Stable and reliable: Few moving parts (primarily solution pumps), smooth operation, low noise, and long service life.

Application Scenarios:  

Primarily used in industrial enterprises with large amounts of low-grade waste heat and  steam:  

Petrochemical industry: Recovers heat from various process condensates and exhaust steam.  

Textile and dyeing industry: Recovers waste heat from drying and setting machines.  

Food and pharmaceutical industry: Recovers waste heat from cooking and disinfection processes.  

Paper industry: Recovers residual heat from exhaust steam generated by drying sections.

District heating: Utilizing industrial waste heat from power plants or other factories for building heating.  

The LiBr low pressure steam heat pump is an advanced industrial energy-saving equipment. It uses the low-temperature steam “energy” discarded in industrial production to “extract” other harder-to-utilize low-temperature waste heat, integrating and upgrading it into high-value industrial heat. This enables enterprises to achieve significant energy savings, cost reductions, emissions reductions, and efficiency improvements, making it one of the key technologies driving industrial green transformation.