Hosseini Hamideh
Chemistry and Chemical Engineering Research Center of Iran (CCERCI) PO Box 14335-186 Teheran Iran
RSC Adv. 2023 Sep 25;13(40):28211-28223. doi: 10.1039/d3ra05580a. eCollection 2023 Sep 18.
Numerous researchers have attempted to provide mild reactions and environmentally-friendly methods for NH synthesis. Research on non-thermal plasma-assisted ammonia synthesis, notably the atmospheric-pressure nonthermal plasma synthesis of ammonia over catalysts, has recently gained attention in the academic literature. Since non-thermal plasma technology circumvents the existing crises and harsh conditions of the Haber-Bosch process, it can be considered as a promising alternative for clean synthesis of ammonia. Non-thermal dielectric barrier discharge (DBD) plasma has been extensively employed in the synthesis of ammonia due to its particular advantages such as the simple construction of DBD reactors, atmospheric operation at ambient temperature, and low cost. The combination of this plasma and catalytic materials can remarkably affect ammonia formation, energy efficiency, and the generation of by-products. The present article reviews plasma-catalysis ammonia synthesis in a dielectric barrier discharge reactor and the parameters affecting this synthesis system. The proposed mechanisms of ammonia production by this plasma catalysis system are discussed as well.
众多研究人员试图为氨合成提供温和的反应条件和环境友好型方法。非热等离子体辅助氨合成的研究,尤其是在催化剂上进行大气压非热等离子体合成氨,最近在学术文献中受到了关注。由于非热等离子体技术规避了哈伯-博施法现有的危机和苛刻条件,它可被视为一种有前景的氨清洁合成替代方法。非热介质阻挡放电(DBD)等离子体因其具有诸如DBD反应器结构简单、在环境温度下常压运行以及成本低等特殊优势,已被广泛应用于氨合成。这种等离子体与催化材料的结合可显著影响氨的生成、能量效率以及副产物的产生。本文综述了介质阻挡放电反应器中的等离子体催化氨合成以及影响该合成系统的参数。还讨论了该等离子体催化系统产生氨的拟议机制。