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Engineering
- Submerged Combustion System
- Combustion employing a preconcentration process
- Air stripping evaporation & combustion process
- Deplumer unit
- Slurry combustion system
- Thermal Oxidizer
- Catalytic WAO Effluent Water Tr eatment System
- BMB Stripper
- Ammonia Separation and Recovery Process
- Ammonia Separation and Decomposition Process
- Biotreatment System / Anaerobic Treatment
- BMB Absorber
- Biotreatment System / Aerobic Treatment
- Solvent Recovery and Refining System
- Local Exhaust Ventilation and Combustion System
- Acid Recovery and Concentration System
- Chlorine Drying Process
- Fluorocarbon Destruction System
- Kiln Gasification System
- Melting Kiln System
- Fast Fluidized Incineration System
- Fluidized-bed Incineration System
- Flue Gas Desulfurization System
- Dioxins Decomposition Catalyst
- Membrane Separation Process
- BMB Generator
- Rare metal recovery system
- Applications of High Performance Packing Device
- Production Plant
- Therm Porter
Performance of the quencher
- Combustion gas from the incinerator is fed into the quencher through a downcomer tube and is instantaneously cooled to approximately 90°C using water. After cooling using water and saturation with water vapor, combustion gas is exhausted from the quencher. In the quencher, when the combustion gas passes through the water, most of the dust and molten salts are captured and dissolved in the water
- （1）Instantaneous cooling eliminates the possibility of the recomposition (de novo reactions) of dioxins.
- （2）The downcomer tube is protected by a water curtain without hot spots.
- （3）Molten salts are dissolved in the water in the quencher without causing steam explosions.
- （4）A simple structure allows for easy maintenance.