Advanced green synthesis: Solvent-free and catalyst-free reaction

Meng-Yao Li , Ao Gu , Jiatong Li , Yingbin Liu
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Abstract

The solvent-free and catalyst-free (SFCF) reaction has garnered significant interest among chemists due to its alignment with many of the 12 principles of green chemistry. In recent years, numerous innovative techniques have been employed to expand the scope of SFCF reactions and diversify the range of substrates. This paper presents an exhaustive examination of these transformations involving various functional groups, including alkenes, alkynes, aldehydes, ketones, imines, carboxylic acids, anhydrides, amides, amines, epoxides, aziridines, and organoselenides. Our review primarily seeks to elucidate the impact of solvent and concentration effects on these reactions by applying novel theories, such as the aggregate effect, multi-body effect, and multiple weak interactions, to ascertain how solvents impede these reactions. Additionally, different reaction mechanisms are contrasted under catalytic versus non-catalytic as well as solvent versus non-solvent conditions. Furthermore, the applications of such environmentally friendly reactions in fields such as material synthesis and drug synthesis are emphasized.

Abstract Image

先进的绿色合成:无溶剂、无催化剂反应
无溶剂无催化剂(SFCF)反应由于符合绿色化学12条原则中的许多原则而引起了化学家的极大兴趣。近年来,许多创新技术被用于扩大SFCF反应的范围和多样化的底物范围。本文提出了一个详尽的检查这些转化涉及各种官能团,包括烯烃,炔,醛,酮,亚胺,羧酸,酸酐,酰胺,胺,环氧化物,氮嘧啶和有机硒化物。我们的综述主要旨在通过应用新的理论,如聚集效应、多体效应和多重弱相互作用,阐明溶剂和浓度对这些反应的影响,以确定溶剂是如何阻碍这些反应的。此外,在催化与非催化以及溶剂与非溶剂条件下,对比了不同的反应机理。并着重介绍了这种环境友好反应在材料合成和药物合成等领域的应用。
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CiteScore
14.40
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