Moiseyev Nimrod
Schulich Faculty of Chemistry, Technion-Israel Institute of Technology, Haifa, 32000, Israel.
Faculty of Physics, Technion-Israel Institute of Technology, Haifa, 32000, Israel.
Commun Chem. 2024 Oct 2;7(1):227. doi: 10.1038/s42004-024-01286-0.
The ability to slow down or enhance chemical reactions, by a seemingly simple setup of reactions inside a cavity made of two parallel mirrors is fascinating. Unfortunately, currently, theory and experiment have not yet fully converged. Since theory and experiment perfectly match for atom/molecular collisions in gas phase the enhancing chemical reactions in gas phase through its coupling to quantized electromagnetic modes in a dark cavity is investigated. Here the conditions and guidelines for selecting the proper type of reactions that can be enhanced by a dark cavity are provided. Showing that the asymmetric reaction rates of O + D → [ODD] → OD + D and H + ArCl → [ArHCl] → H + Ar + Cl can be enhanced by a dark cavity. On the other hand, an effect of the dark cavity on the symmetric reaction of hydrogen exchange in methane is predicted to be negligible. Notice that the theory is not limited to microwave cavities only.
通过由两个平行镜构成的腔内看似简单的反应设置来减慢或增强化学反应的能力令人着迷。不幸的是,目前理论和实验尚未完全达成一致。由于理论和实验在气相中的原子/分子碰撞方面完美匹配,因此研究了通过与暗腔内的量子化电磁模式耦合来增强气相中的化学反应。这里提供了选择可被暗腔增强的合适反应类型的条件和指导方针。结果表明,暗腔可以增强O + D → [ODD] → OD + D和H + ArCl → [ArHCl] → H + Ar + Cl的不对称反应速率。另一方面,预计暗腔对甲烷中氢交换对称反应的影响可忽略不计。请注意,该理论不仅限于微波腔。