Okada Yohei
Department of Chemical Engineering, Tokyo University of Agriculture and Technology, 2-24-16 Naka-cho, Koganei, Tokyo, 184-8588, Japan.
Chem Rec. 2021 Sep;21(9):2223-2238. doi: 10.1002/tcr.202100029. Epub 2021 Mar 26.
In the field of synthetic organic chemistry, photochemical and electrochemical approaches are often considered to be competing technologies that induce single electron transfer (SET). Recently, their fusion, i. e., the "photoelectrochemical" approach, has become the focus of attention. In this approach, both solar and electrical energy are used in creative combinations. Historically, the term "photoelectrochemistry" has been used in more inorganic fields, where a photovoltaic effect exhibited by semiconducting materials is employed. Semiconductors have also been studied intensively as photocatalysts; however, they recently have taken a back seat to molecular photocatalysts. In this account, we would like to revisit semiconductor photocatalysts in the field of synthetic organic chemistry to demonstrate that semiconductor "photoelectrochemical" approaches are more than mere alternatives to molecular photochemical and/or electrochemical approaches.
在合成有机化学领域,光化学和电化学方法通常被视为引发单电子转移(SET)的相互竞争的技术。最近,它们的融合,即“光电化学”方法,已成为关注焦点。在这种方法中,太阳能和电能以创造性的组合方式被利用。从历史上看,“光电化学”一词更多地用于无机领域,其中利用了半导体材料表现出的光伏效应。半导体也作为光催化剂得到了深入研究;然而,它们最近已让位于分子光催化剂。在本综述中,我们希望重新审视合成有机化学领域中的半导体光催化剂,以证明半导体“光电化学”方法不仅仅是分子光化学和/或电化学方法的替代方案。