The characteristics of superoxide micro nano bubbles greatly improve the deodorization efficiency. Through practical application verification, the removal rate of common odorous gases can reach over 90%, which can quickly purify exhaust gas.
Ozone micro nano bubble technology can alter the chemical environment of wastewater, promoting the formation of complexes between heavy metal ions and certain ligands in water. For example, some intermediate products generated during ozone oxidation may act as ligands to complex with heavy metal ions. These complexes may have different physical and chemical properties, making them easier to remove from wastewater through subsequent separation techniques.
Superoxide micro nano bubble technology is a product that combines superoxide ions with micro nano bubble technology. Micro nano bubbles have extremely small particle sizes (usually between 100 nanometers and 5 micrometers) and a huge specific surface area, which allows superoxide gas to be fully encapsulated inside the bubbles and form a stable dispersion system in the liquid phase. When superoxide micro nano bubbles come into contact with exhaust gas, the negative charge on their surface attracts the positively charged odor molecules, promoting full contact between the two. At the same time, superoxide, as a strong oxidant, has extremely strong oxidizing ability. At the moment of micro nano bubble explosion, superoxide is released, which can quickly react chemically with odorous substances such as hydrogen sulfide, ammonia, and methyl mercaptan, decomposing them into harmless or low-risk small molecules such as carbon dioxide, water, and sulfate. For example, hydrogen sulfide (H ₂ S) can be oxidized by superoxide to sulfate ions (SO ₄² ⁻), while ammonia (NH ∝) is oxidized to nitrogen gas (N ₂) and water (H ₂ O), thereby eliminating odors from the source. In addition, the micro jets and free radicals generated by the rising process of micro nano bubbles can further enhance the reaction rate between superoxide and odorous substances, and improve the deodorization effect.
Superoxide micro nano bubbles have small particle size and large quantity, and have a large contact area with hydrogen sulfide waste gas, which can react quickly. Like countless small brushes, it cleans hydrogen sulfide thoroughly, with much higher processing efficiency than traditional methods, and can increase the removal rate of hydrogen sulfide to over 95%.
Integrating oxygen into nutrient solution to form micro nano bubbles and enriched water, achieving efficient oxygenation. Micro nano bubbles rise slowly, stay for a long time, and have good slow-release properties, continuously delivering oxygen to the roots and allowing plants to grow vigorously. On the other hand, generating micro nano bubble ozone water, utilizing strong oxidative disinfection of ozone, combined with ultraviolet disinfection technology, achieves a synergistic disinfection effect of 1+1>2, comprehensively protecting the hydroponic environment.
Ozone dissolves at the gas-liquid interface of micro nano bubbles and in water bodies, and micro nano bubbles serve as carriers to transport ozone to various corners. When micro nano bubbles rupture, high concentrations of ozone are released, further enhancing the oxidation and sterilization effects. This synergistic effect not only leverages the strong oxidizing properties of ozone, but also utilizes the unique physical properties of micro nano bubbles to achieve comprehensive cleaning, odor removal, sterilization, and preservation of objects.
After ozone decomposition, hydroxyl radicals (· OH) are generated, which have stronger oxidation ability and can indiscriminately attack microbial proteins, enzyme systems, and genetic material (such as DNA/RNA), blocking their metabolism and reproductive functions. Broad spectrum killing: Effective against bacteria (including spores), viruses, fungi, protozoa, etc., especially against chlorine tolerant pathogens (such as Cryptosporidium).
Application analysis of "new power" micro nano bubbles in oilfield injection wells for oil recovery
Aerobic disinfection micro nano bubble technology, micro nano bubble generation device, micro nano bubble machine
Micro nano bubble technology, micro nano bubble generator, waste gas treatment micro nano bubble generator
The characteristics of superoxide micro nano bubbles greatly improve the deodorization efficiency. Through practical application verification, the removal rate of common odorous gases can reach over 90%, which can quickly purify exhaust gas.
Ozone micro nano bubble technology can alter the chemical environment of wastewater, promoting the formation of complexes between heavy metal ions and certain ligands in water. For example, some intermediate products generated during ozone oxidation may act as ligands to complex with heavy metal ions. These complexes may have different physical and chemical properties, making them easier to remove from wastewater through subsequent separation techniques.
Superoxide micro nano bubble technology is a product that combines superoxide ions with micro nano bubble technology. Micro nano bubbles have extremely small particle sizes (usually between 100 nanometers and 5 micrometers) and a huge specific surface area, which allows superoxide gas to be fully encapsulated inside the bubbles and form a stable dispersion system in the liquid phase. When superoxide micro nano bubbles come into contact with exhaust gas, the negative charge on their surface attracts the positively charged odor molecules, promoting full contact between the two. At the same time, superoxide, as a strong oxidant, has extremely strong oxidizing ability. At the moment of micro nano bubble explosion, superoxide is released, which can quickly react chemically with odorous substances such as hydrogen sulfide, ammonia, and methyl mercaptan, decomposing them into harmless or low-risk small molecules such as carbon dioxide, water, and sulfate. For example, hydrogen sulfide (H ₂ S) can be oxidized by superoxide to sulfate ions (SO ₄² ⁻), while ammonia (NH ∝) is oxidized to nitrogen gas (N ₂) and water (H ₂ O), thereby eliminating odors from the source. In addition, the micro jets and free radicals generated by the rising process of micro nano bubbles can further enhance the reaction rate between superoxide and odorous substances, and improve the deodorization effect.
Superoxide micro nano bubbles have small particle size and large quantity, and have a large contact area with hydrogen sulfide waste gas, which can react quickly. Like countless small brushes, it cleans hydrogen sulfide thoroughly, with much higher processing efficiency than traditional methods, and can increase the removal rate of hydrogen sulfide to over 95%.
Integrating oxygen into nutrient solution to form micro nano bubbles and enriched water, achieving efficient oxygenation. Micro nano bubbles rise slowly, stay for a long time, and have good slow-release properties, continuously delivering oxygen to the roots and allowing plants to grow vigorously. On the other hand, generating micro nano bubble ozone water, utilizing strong oxidative disinfection of ozone, combined with ultraviolet disinfection technology, achieves a synergistic disinfection effect of 1+1>2, comprehensively protecting the hydroponic environment.
Ozone dissolves at the gas-liquid interface of micro nano bubbles and in water bodies, and micro nano bubbles serve as carriers to transport ozone to various corners. When micro nano bubbles rupture, high concentrations of ozone are released, further enhancing the oxidation and sterilization effects. This synergistic effect not only leverages the strong oxidizing properties of ozone, but also utilizes the unique physical properties of micro nano bubbles to achieve comprehensive cleaning, odor removal, sterilization, and preservation of objects.
After ozone decomposition, hydroxyl radicals (· OH) are generated, which have stronger oxidation ability and can indiscriminately attack microbial proteins, enzyme systems, and genetic material (such as DNA/RNA), blocking their metabolism and reproductive functions. Broad spectrum killing: Effective against bacteria (including spores), viruses, fungi, protozoa, etc., especially against chlorine tolerant pathogens (such as Cryptosporidium).
Application analysis of "new power" micro nano bubbles in oilfield injection wells for oil recovery
Aerobic disinfection micro nano bubble technology, micro nano bubble generation device, micro nano bubble machine
Micro nano bubble technology, micro nano bubble generator, waste gas treatment micro nano bubble generator