Molten salt heat transfer material heaters

With oil and gas as fuel, molten salt asheat carrier, QXS series molten salt heat transfer material heaters sends thehot liquid by circulation pump to the heating using equipment, then returns theliquid back to the furnace for heating again. It is a special industrial heaterunder direct liquid circulation. In a high temperature of 350 - 480 ℃, organic heat carrier can not be used and only molten salt heatcarrier can be used. The whole system is composed of heating furnace,circulation pump, melting slot. The heat carrier in the melting slot is pumpedinto the heating furnace by the circulation pump for heating, and then ispumped into the using equipment in a certain temperature. The heat carrier willreturn back into the melting slot after supplying the heat. Therefore themolten salt heat transfer material heaters uses oil and gas as fuel and thecombustion is stable. It can be used under lower operating pressure and gets ahigher operating temperature. The heat supplying temperature is stable and canbe adjusted accurately. It works stably within adjusted load section and keepsoptimum thermal efficiency. It possesses the characteristics of completeoperating control and safety monitoring device etc.

Coal Molten Salt Furnace 

Heat output: 500-35000kW 

Technical features:

Most optimized in- and out-ring coil 

And top coil structure 

Heat absorption by large radiatingsurface 

Lateral support for radiating section 

Reinforced heat convection 

Optimal design of spatial heatintensity 

Fume temperature control at mouth andhearth outlet 

Reinforced combustion 

Grates’ optimal adjustment 

Optimization of thermal efficiency 

Automatic soot cleaning 

Efficient and energy-saving systemconfiguration 

Frequency conversion and energy saver 

Multi-furnace synchronization 

Recirculation temperature control 

Complemented multi-grade dedusting

Waste heat recovery

Oil (Gas) Molten Salt Furnace

Heat output: 500-35000kW

Technical features:

Unique coil structure at radiant section

Optimal design of double- or multi-layercoil tube 

And top coil structure 

Heat absorption by large radiatingsurface 

Reinforced heat convection 

Optimal design of spatial heatintensity 

Fume temperature control at outlet ofradiating section  Automationcontrol 

Combined firing 

Low NOX combustion 

Environmental protection control 

Automatic reset of explosion door 

Waste heat recovery 

Reinforced heat preservation 

Thermal efficiency maximization