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光催化中的维生素B——协同催化中一个未被充分探索的前沿领域。

Vitamin B in Photocatalysis - An Underexplored Frontier in Cooperative Catalysis.

作者信息

Moser Austin J, Funk Brian E, West Julian G

机构信息

Department of Chemistry, Rice University, 6100 Main Street, Houston, Texas, 77005 United States.

出版信息

ChemCatChem. 2024 Apr 8;16(7). doi: 10.1002/cctc.202301231. Epub 2023 Dec 22.

Abstract

Vitamin B (VB) is a flexible and sustainable catalyst both in nature and the reaction flask, facilitating varied organic transformations of high value to both enzymatic processes and synthetic chemists. Key to this value is the breadth of reactivity it possesses, capable of both ionic, 2 electron chemistry, and radical, 1 electron chemistry. In particular, the ability to generate carbon-centered radical intermediates via photolysis of organocobalt intermediates formed from alkyl electrophiles opens the door to powerful new radical transformations challenging to achieve using classical photoredox or ligand-to-metal charge transfer (LMCT) catalysis. While this unique photocatalytic reactivity of VB has been increasingly leveraged in monocatalytic schemes, recent reports have demonstrated VB is able to function as the photocatalytic component in cooperative schemes, driving diverse reactivity including remote elimination of alkyl halides, regioselective epoxide arylation, and regioselective epoxide reduction. This concept briefly overviews the enabling photochemical properties of VB and recent applications in cooperative catalysis, providing a framework for the continued development of new cooperative catalyst systems using this powerful photoactive complex.

摘要

维生素B(VB)在自然界和反应烧瓶中都是一种灵活且可持续的催化剂,它促进了对酶促过程和合成化学家都具有高价值的各种有机转化。这种价值的关键在于它所具有的反应性广度,既能进行离子型的2电子化学过程,也能进行自由基型的1电子化学过程。特别是,通过光解由烷基亲电试剂形成的有机钴中间体来生成以碳为中心的自由基中间体的能力,为强大的新型自由基转化打开了大门,而使用经典的光氧化还原或配体到金属电荷转移(LMCT)催化很难实现这些转化。虽然VB这种独特的光催化反应性已越来越多地用于单催化体系中,但最近的报道表明,VB能够在协同体系中作为光催化组分发挥作用,推动包括远程消除卤代烃、区域选择性环氧化合物芳基化以及区域选择性环氧化合物还原等多种反应。本文简要概述了VB的光化学性质及其在协同催化中的最新应用,为利用这种强大的光活性配合物持续开发新型协同催化剂体系提供了一个框架。

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