Max Planck Institute for Chemistry, Hahn-Meitner-Weg 1, 55128 Mainz, Germany.
Chem Soc Rev. 2012 Oct 7;41(19):6259-93. doi: 10.1039/c2cs35070j. Epub 2012 Jun 1.
The chemistry of the atmosphere encompasses a vast number of reactions acting on a plethora of intermediates. These reactions, occurring sequentially and in parallel, give rise to intertwined and irreducible mechanisms describing the complex chemical transformations of organic and inorganic compounds in the atmosphere. The complexity of this system is that it requires combined experimental, theoretical, and modeling approaches to elucidate the characteristics of the individual reactions, and their mutual interaction. In this review, we describe recent results from quantum chemical and theoretical kinetic studies of relevance to atmospheric chemistry. The review first summarizes the most commonly used theoretical methodologies. It then examines the VOC oxidation initiation channels by OH, O(3), NO(3) and Cl, followed by the reactions of the alkyl, alkoxy, alkylperoxy and Criegee intermediates active in the subsequent oxidation steps. Specific systems such as the oxidation of aromatics and the current state of knowledge on OH-regeneration in VOC oxidation are also discussed, as well as some inorganic reactions.
大气化学涵盖了大量在众多中间体上发生的反应。这些反应顺序和并行发生,产生了相互交织且不可简化的机制,描述了大气中有机和无机化合物的复杂化学转化。该系统的复杂性在于需要结合实验、理论和建模方法来阐明各个反应的特征及其相互作用。在这篇综述中,我们描述了与大气化学相关的量子化学和理论动力学研究的最新结果。综述首先总结了最常用的理论方法。然后检查了 OH、O(3)、NO(3) 和 Cl 引发 VOC 氧化的通道,接着是在随后的氧化步骤中起作用的烷基、烷氧基、烷基过氧基和 Criegee 中间体的反应。还讨论了特定系统,如芳烃的氧化以及在 VOC 氧化中 OH 再生的现有知识状态,以及一些无机反应。