Arora Aayushi, Oswal Preeti, Sharma Deepali, Purohit Suraj, Tyagi Anupma, Sharma Pankaj, Kumar Arun
Department of Chemistry, School of Physical Sciences, Doon University, Dehradun-248012, India.
Instituto de Quimica, National Autonomous University of Mexico, CDMX 04510 Mexico.
Dalton Trans. 2022 Nov 21;51(45):17114-17144. doi: 10.1039/d2dt02558b.
Suzuki-Miyaura cross-coupling (SMC) is an extremely useful reaction in organic syntheses. During the last two decades, many researchers across the world have employed organochalcogen compounds in various ways for the development of catalytic systems for this reaction. Chalcogen-ligated molecular complexes have been designed using such compounds as ligands, and applied as homogeneous catalytic systems. During the period 2013-2022, various heterogeneous and nano-catalytic systems have also been developed using organosulphur, organoselenium and organotellurium compounds. The main advantages associated with such systems are their easy synthesis and air- and moisture-insensitivity. This article aims to provide insights into the synthetic methodologies pertaining to the preparation of (i) these catalytically relevant and useful compounds and (ii) the heterogeneous and nano-catalytic systems designed using them. Another major focus of the article is to rationalize and critically analyse the effect of chalcogen donor on the size, composition, morphology and shape of the nanostructure. A critical analysis of the applications of all such catalytic systems in Suzuki-Miyaura coupling is presented in detail. Various factors (, temperature) which affect the catalytic performance are also rationalized. The effects of binding mode, ligand framework, chalcogen donor atom and metal are also covered, along with all other factors that influence the catalytic potential of the systems. Various other aspects such as green catalysis (in aqueous medium and in air), and use of non-conventional (ultrasonic radiation) energy sources are analysed. Applications of heterogeneous and nanocatalytic systems apart from Suzuki coupling are also highlighted, and challenges and future scope are elaborated.
铃木-宫浦交叉偶联反应(SMC)是有机合成中一种极为有用的反应。在过去二十年里,世界各地的许多研究人员以各种方式使用有机硫属元素化合物来开发该反应的催化体系。已使用此类化合物作为配体设计了硫属元素连接的分子配合物,并将其用作均相催化体系。在2013年至2022年期间,还使用有机硫、有机硒和有机碲化合物开发了各种非均相和纳米催化体系。与这类体系相关的主要优点是它们易于合成且对空气和湿气不敏感。本文旨在深入探讨与制备(i)这些具有催化相关性和实用性的化合物以及(ii)使用它们设计的非均相和纳米催化体系相关的合成方法。本文的另一个主要重点是合理分析并批判性地研究硫属元素供体对纳米结构的尺寸、组成、形态和形状的影响。详细介绍了所有此类催化体系在铃木-宫浦偶联反应中的应用的批判性分析。还对影响催化性能的各种因素(如温度)进行了合理分析。还涵盖了键合模式、配体骨架、硫属元素供体原子和金属的影响,以及所有其他影响体系催化潜力的因素。分析了各种其他方面,如绿色催化(在水性介质和空气中)以及使用非常规(超声辐射)能源。还强调了非均相和纳米催化体系在铃木偶联反应之外的应用,并阐述了挑战和未来发展前景。