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金属催化的有机分子叠氮化反应

Metal-Catalysed Azidation of Organic Molecules.

作者信息

Goswami Monalisa, de Bruin Bas

机构信息

Van 't Hoff Institute for Molecular Sciences University of Amsterdam Science Park 904 1098 XH Amsterdam The Netherlands.

出版信息

European J Org Chem. 2017 Feb 24;2017(8):1152-1176. doi: 10.1002/ejoc.201601390. Epub 2016 Dec 22.

Abstract

The azide moiety is a desirable functionality in organic molecules, useful in a variety of transformations such as olefin aziridination, C-H bond amination, isocyanate synthesis, the Staudinger reaction and the formation of azo compounds. To harness the versatility of the azide functionality fully it is important that these compounds be easy to prepare, in a clean and cost-effective manner. Conventional (non-catalysed) methods to synthesise azides generally require quite harsh reaction conditions that are often not tolerant of functional groups. In the last decade, several metal-catalysed azidations have been developed in attempts to circumvent this problem. These methods are generally faster, cleaner and more functional-group-tolerant than conventional methods to prepare azides, and can sometimes even be conveniently combined with one-pot follow-up transformations of the installed azide moiety. This review highlights metal-catalysed approaches to azide synthesis, with a focus on the substrate scopes and mechanisms, as well as on advantages and disadvantages of the methods. Overall, metal-catalysed azidation reactions provide shorter routes to a variety of potentially useful organic molecules containing the azide moiety.

摘要

叠氮基部分是有机分子中一种理想的官能团,可用于多种转化反应,如烯烃氮杂环丙烷化反应、C-H键胺化反应、异氰酸酯合成反应、施陶丁格反应以及偶氮化合物的形成反应。为了充分利用叠氮基官能团的多功能性,以清洁且经济高效的方式简便地制备这些化合物非常重要。传统的(非催化的)叠氮化物合成方法通常需要相当苛刻的反应条件,这些条件往往对官能团不兼容。在过去十年中,人们开发了几种金属催化的叠氮化反应,试图解决这个问题。与传统的叠氮化物制备方法相比,这些方法通常更快、更清洁且对官能团的耐受性更强,有时甚至可以方便地与所引入的叠氮基部分的一锅法后续转化反应相结合。本综述重点介绍了金属催化的叠氮化物合成方法,着重阐述了底物范围和反应机理,以及这些方法的优缺点。总体而言,金属催化的叠氮化反应为合成各种含有叠氮基部分的潜在有用有机分子提供了更短的路线。

https://cdn.ncbi.nlm.nih.gov/pmc/blobs/b606/5347896/2300cbf0cf03/EJOC-2017-1152-g003.jpg

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