The catalyst synthesis workstation provides key support for the development of efficient pollution control technologies through precise design, automated synthesis, and multi scenario adaptation, specifically reflected in the following aspects:
Precise design enhances catalytic performance
The activity, selectivity, and lifespan of catalysts are the core indicators of pollution control. The workstation can significantly improve catalytic efficiency by optimizing the combination of carrier and co catalyst. For example, the use of carriers such as diatomaceous earth and molecular sieves can alter the surface properties of catalysts and enhance the dispersibility of active components; Adding co catalysts (such as rare earth elements) can reduce the amount of catalyst used and enhance the ability to resist poisoning. The catalytic oxidation technology for nitrogen-containing volatile organic compounds (VOCs) developed by a certain company achieves one-step removal of pollutants through precise regulation of catalyst composition, without the need for secondary treatment, reducing costs by 30% and increasing efficiency by 40%.
Industrialization of Automated Synthesis Support Technology
The workstation integrates modules such as solid-liquid feeding, high-temperature stirring, and automatic cleaning, supports multi-channel parallel reactions, and can quickly screen synthesis conditions. For example, in diesel exhaust treatment, the workstation uses automated synthesis of molecular sieve catalysts to achieve a purification level of over 50% for nitrogen oxide (NOx) emissions, meeting the National VI standard. In addition, its data traceability function can record parameters such as reaction temperature and pressure, providing a basis for process optimization and shortening the cycle of technology from laboratory to industrialization.
Multi scenario adaptation promotes technology implementation
For different pollution scenarios, the workstation can customize the development of catalysts. For example, in industrial waste gas treatment, the efficient removal of SO ₂ from power plant exhaust is achieved by synthesizing high-temperature resistant and sulfur resistant catalysts; In the treatment of domestic pollution, nano photocatalytic materials are used to decompose pollutants into CO ₂ and H ₂ O under ultraviolet irradiation, without secondary pollution. A certain enterprise developed a dioxin removal catalyst through a workstation, which achieved a removal rate of 99.9% in urban waste incineration plants, with emission concentrations far below international standards.