The superoxide micro nano bubble generator technology is a technology for treating odorous and odorous exhaust gases. The principle of this technology is to generate nanoscale water bubbles containing multiple oxygen atoms, making the atomic clusters of water molecules smaller, making it extremely easy for the oxygen in the nanobubbles to integrate into the gaps of the atomic clusters. At the same time, oxygen molecular clusters break the interface of water, making it easier for superoxide nanobubbles to dissolve into water. During the continuous Brownian motion of water molecules, a large number of ultrafine bubbles dissolve and rupture in water, instantly generating energy and a large amount of oxygen ions and hydroxyl radicals, possessing strong negative ion release ability.

The characteristics of the superoxide micro nano bubble generator technology include: it can adapt to the deodorization and purification treatment of different organic waste gases and odorous gas substances such as high concentration, atmospheric volume or ultra large gas volume, high humidity, dust, high temperature, acidity, alkalinity, etc. It can be applied to the treatment of exhaust gases in most industries such as biological fermentation, synthetic pharmaceuticals, printing and dyeing, printing, leather making, compound fertilizers, and feed. It is also suitable for the purification of foul odor exhaust gases in sewage treatment plants and garbage transfer stations. The superoxide micro nano bubble generator technology, as a new type of waste gas treatment technology, has broad application prospects and market potential.

The working principle of superoxide micro nano bubble technology in the treatment of odorous waste gas mainly includes the following aspects:

Oxidative decomposition: The highly reactive oxygen species produced, such as hydroxyl radicals (· OH), can oxidize and decompose organic pollutants in foul smelling waste gas.

Micro nano bubbles: They have the characteristics of large specific surface area and long residence time, increasing the contact area between gas and liquid and improving mass transfer efficiency.

Enhanced oxidation reaction: Improve the utilization rate and reaction rate of oxidants, and accelerate the decomposition of odorous substances.

The advantages of this technology include:

Efficiency: It can quickly decompose pollutants in foul smelling waste gas.

Strong adaptability: capable of handling various types of foul smelling waste gases.

No secondary pollution: The final product is a harmless substance.

Easy to operate: relatively easy to implement and control.