Superoxide micro-nano bubble technology boasts low resource consumption, low greenhouse effect, stable and reliable operation, extremely low failure rate, simple maintenance, and low operating costs.
1.Integrated design of mechanics, electricity, water, and gas systems, with integrated electrical control devices and instruments, resulting in a compact overall structure that facilitates integration with existing systems to improve waste gas emissions.
2.Capable of treating various organic waste gases: [ethyl acetate, cycloacetone, NMP, DMAC, ammonia, trimethylamine, hydrogen sulfide, methyl mercaptan, dimethyl sulfide, dimethyl disulfide, carbon disulfide, and styrene; sulfides (H2S), VOCs, and the molecular chain structures of benzene, toluene, and xylene].
3.Corrosion resistant; all flow-through components are made of SUS304 stainless steel/316L stainless steel/PTEF material.
4.Industrial-grade design, capable of stable and reliable 24-hour continuous operation.
5.Intelligent control; CPU-integrated control provides online real-time monitoring of key process parameters such as flow rate, temperature, and pressure.
When stimulated by physical factors in the environment (such as compression and expansion caused by water flow and vortex flow), superoxide micro-nano bubbles generate ultra-high pressure of approximately 10 atmospheres and an extreme reaction field with an intermolecular temperature of 4400℃ through instantaneous (approximately 10⁻⁹ seconds) adiabatic compression. The unique superoxide and active hydrogen-oxygen compounds, exhibiting ionization properties, generate a large number of hydroxyl anions from water molecules in the air. These hydroxyl anions and the resulting hydroxyl radicals possess extremely strong decomposition capabilities, producing numerous smaller microbubbles through a crushing effect. These microbubbles exhibit characteristics such as ultrasonic waves, electrical charge, retention, self-pressurization, diffusion, and strong oxidizing properties. They decompose and eliminate organic matter (VOCs) through chemical reactions, breaking down and separating pollutants to suspend them on the water surface. This process causes some VOCs to be converted into carbon dioxide and water, while the remaining portion is mineralized into particles that sink into the water. These microbubbles are non-flammable, insoluble, and non-toxic. Removal of non-methane total hydrocarbons, formaldehyde, benzene compounds, hydrogen sulfide, odors, and other organic compounds (VOCs).
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