What catalyst converts ozone to oxygen?

MINSLITE-BG01 is a composite catalyst based on copper (Cu) and manganese (Mn) oxides. The unique preparation process achieves high dispersion and structural optimization of the two metal oxides. Its core design includes:

Nanoscale active sites: Synthesized by sol-gel method, forming particles with a particle size of less than 50 nanometers, greatly increasing the specific surface area (≥150 m²/g), providing sufficient active sites for ozone adsorption and reaction.

Cu-Mn dual active center:

Manganese oxide (MnOx): Directly decomposes ozone molecules (O₃ → O₂ + O⁻) through the rapid redox cycle of Mn³⁺/Mn⁴⁺.

Copper oxide (CuO): As an electron transfer medium, it accelerates the transfer and recombination of oxygen free radicals (O⁻) (O⁻ + O₃ → 2O₂), while stabilizing the catalyst structure.

Catalytic reaction path: O₃ is adsorbed on the Mn³⁺ site and decomposed into O₂ and adsorbed oxygen (O⁻). CuO promotes the migration of O⁻ and combines with O₃ in the gas phase to generate O₂. Moisture resistance: Through surface hydrophobic modification, MINSLITE-BG01 remains highly active in a humid environment, solving the problem that traditional catalysts are easily poisoned by water molecules. Low temperature and high efficiency: No additional heating equipment is required, and ozone can be quickly decomposed at room temperature, with significant energy-saving and consumption-reducing effects. Practical application: from laboratory to industrial scene 1. Industrial air purification In semiconductor manufacturing workshops, ozone needs to be decomposed immediately after being used for wafer cleaning. A leading chip company uses a catalytic tower filled with MINSLITE-BG01. The measured ozone concentration has dropped from 100 ppm to below 0.1 ppm, with a treatment efficiency of 99.9%, and the catalyst has not been replaced for two years. 2. Medical disinfection system

After hospitals use ozone to disinfect instruments, residual ozone threatens the health of medical staff. A tertiary hospital introduced the MINSLITE-BG01 module, which reduced the ozone concentration in the confined space from 50 mg/m³ to the safety standard (0.05 mg/m³) within 10 minutes, which is much better than the 30-minute treatment time of the activated carbon adsorption solution.

3. Civilian air purifier

Minstrong cooperates with many home appliance brands to integrate MINSLITE-BG01 into home fresh air systems. Third-party testing shows that its removal rate of indoor ozone (such as printer release) remains stable at more than 98%, and there is no need to frequently replace the filter element (lifespan 3~5 years).

Customer testimony: win-win for reliability and economy

Feedback from an airline:

"When the aircraft is cruising at high altitude, the cabin ozone concentration often exceeds 0.2 ppm. After installing the MINSLITE-BG01 catalytic module, the real-time monitoring value of ozone is always lower than 0.01 ppm, the maintenance cycle is extended from half a year to three years, and the annual cost savings for a single machine exceed 120,000 yuan."

Evaluation from an environmental engineering company:

"In the ozone pollution control project in the industrial zone, the ton treatment cost of MINSLITE-BG01 is only 15% of that of the platinum catalyst, and there is no risk of secondary pollution of heavy metals, and the environmental protection review was passed at one time."

MINSLITE-BG01 copper-manganese composite catalyst has become the preferred solution in the field of ozone decomposition due to its innovative dual-active center design, excellent anti-humidity and anti-aging performance and significant cost advantages. From laboratory data to industrial-grade applications, its high efficiency and reliability have been fully verified, providing solid technical guarantees for industrial safety, environmental protection and people's livelihood. In the future, as the demand for green technology in more industries grows, MINSLITE-BG01 will continue to lead the practical innovation of ozone treatment technology.