Applicable Industries And Range
Application Industries |
Petrochemicals, solid waste treatment, pharmaceuticals, and chemical industries. |
Concentration Range |
500~5000mg/m³(2~12% LEL). |
Working Principle
The liquid waste incinerator heats the combustion chamber to above 800 ℃. The compressed waste liquid is atomized and sprayed into the combustion chamber and fully mixed with high-temperature air to oxidize and decompose into carbon dioxide and water. The high-temperature gas produced by oxidation flows through specially designed ceramic heat storage bodies, which raises the temperature and the "heat storage" of the ceramic is used to preheat the subsequent fresh air entering the chamber, thus saving fuel consumed for gas heating. The ceramic heat storage bodies should be divided into three or more zones or chambers, and each heat storage chamber undergoes heating, releasing, and cleaning procedures, working continuously in cycles.
Technical Features
1. Low energy consumption: When the intake concentration is between 1500~2000mg/m3, the system can basically operate naturally without requiring any fuel supply.
2. High waste heat recovery efficiency: The use of new materials (heat storage ceramics) technology allows for waste heat recovery efficiency of up to 95%.
3. Easy operation: The system can be controlled by either traditional electronic controls or an industrial controller. After parameter calibration, the one-key start-stop function can be used to achieve unattended operation.
Valve selection |
Poppet valve | Butterfly valve |
Purification rate |
≤98% | <99.3% |
Installation method |
Integral installation | Single installation |
Process Flow
The liquid waste incinerator is another application of the heat storage type thermal incinerator. Compressed waste liquid is atomized and sprayed into the combustion chamber through a nozzle, and high-temperature oxidation is applied to the waste liquid through the characteristics of RTO heat storage and energy efficiency, resulting in safe emission. This equipment effectively reduces heat energy loss, saves energy, has a high purification efficiency, and does not produce secondary pollution.
Process 1 |
Process 2 | Process 3 | |
Simple schematic diagram |
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The first room |
Fresh air absorbs heat and heat storage ceramic body 1 exerts heat | Heat storage ceramic body 1 untreated exhaust gas back-blowing furnace combustion |
The clean gas is discharged from the heat storage ceramic body 1 to absorb heat |
The second room |
Clean gas out of the heat storage ceramic body 2 heat absorption | Fresh air absorbs heat and heat storage ceramic body 2 exerts heat | Heat storage ceramic body 2 untreated exhaust gas back-blowing furnace combustion |
The third chamber |
Heat storage ceramic body 3 untreated exhaust gas back-blowing furnace combustion | Clean gas discharge heat storage ceramic body 3 absorbs heat | Fresh air absorbs heat and heat storage ceramic body 3 exerts heat |
Combustion chamber |
After the temperature reaches 800℃, the nozzle sprays the waste liquid and thus decomposes by high temperature oxidation. |
Selection Criteria
1. If the exhaust gas contains corrosive components such as sulfur and chlorine, it is necessary to inform the supplier during the selection process. Corrosion-resistant materials such as SUS2205 or higher grade materials must be used for manufacturing, and special treatment is required for such gases in the later stage.
2. The maximum temperature limit for a heat storage high-temperature incineration device is lower than 960°C. High-heat materials and high-concentration gases require dilution treatment. If there are special requirements, please inform the supplier to make specific demands on insulation in the design stage.
3. The gas entering the heat storage high-temperature incineration device must not contain dust particles that will cause blockages or tempering, as well as oil mist to prevent tempering and blockage of the heat storage ceramics.
4. For areas where there are emission requirements for nitrogen oxides from high-temperature incineration devices, special attention must be given so that low-ammonia combustion systems are used when purchasing combustion equipment. If there are higher nitrogen contents in the exhaust gas. Even with low-nitrogen combustion systems, the emissions standards cannot be met, and further denitrification treatment is required.