The benefits of using a High Temperature Incinerator include:
The safety regulations that govern the use of High Temperature Incinerators include:
A High Temperature Incinerator works by burning hazardous waste at a high temperature of between 850-1200°C. The waste is introduced into the primary combustion chamber through a feed conveyor. The waste is then ignited and the resulting gases and ash are pulled through a secondary chamber where they are further incinerated. The gases are then cooled, cleaned and released to the atmosphere.
A High Temperature Incinerator can incinerate a variety of hazardous waste, including:
In conclusion, High Temperature Incinerators play a crucial role in the safe disposal of hazardous waste. The process of incineration destroys organic compounds and reduces the waste volume by up to 90%, thus protecting the environment. At Yangzhou Lvquan Environmental Engineering Technology Co., Ltd., we specialize in the design, manufacture, and installation of High Temperature Incinerators. For more information, visit our website at www.vocs-equipment.com or contact us via email at lvqhb@vocs-equipment.com.
1. Decontamination of medical waste incinerator fly ash using acid washing and chelating agents - F Shen, et al., 2018, Journal of Cleaner Production, 172: 2546-2554.
2. The fluid dynamics of two-stage waste combustion in a horizontal rotary kiln incinerator - DB Ingham, et al., 2016, Journal of Environmental Management, 183: 98-112.
3. Numerical simulation on combustion and sulfur transformation characteristics of a moving bed municipal solid waste incinerator - YH Li, et al., 2017, Waste Management, 68: 175-182.
4. Study on Key Technical Problems of Medical Waste Incineration Treatment and Control Technologies - S Chen, et al., 2020, IOP Conference Series: Earth and Environmental Science, 428(1): 012009.
5. Heavy metals in residential bottom ash from urban solid waste incinerators in China - W Han, et al., 2020, Science of The Total Environment, 745: 140951.
6. Flame stability and emissions characterization in a propane-fueled laboratory-scale thermal oxidizer - ZN Yan, et al., 2018, Journal of Hazardous Materials, 357: 246-254.
7. Turbulent combustion characteristics of PF swirl burners in 600 MWe supercritical once-through boiler under large load - Y Yang, et al., 2017, Applied Thermal Engineering, 120: 99-107.
8. Research on the regulation of medical waste incineration pollutants in China - Y Li, et al., 2019, IOP Conference Series: Earth and Environmental Science, 222: 062037.
9. Pyrolysis kinetics of two-phase olive mill solid waste and its mixtures with flaming and non-flaming wastes under different oxidative environments - F Caballero, et al., 2017, Waste Management, 62: 74-87.
10. Study on the Pyrolytic Characteristics and Kinetics of Medical Waste-to-Energy Treatment - Y Fang, et al., 2019, IOP Conference Series: Materials Science and Engineering, 534: 042134.