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分子锗的多样功能:作为催化剂的新机遇

Diverse Functionality of Molecular Germanium: Emerging Opportunities as Catalysts.

作者信息

Mukherjee Nilanjana, Majumdar Moumita

机构信息

Department of Chemistry, Indian Institute of Science Education and Research, Pune, Dr. Homi Bhabha Road, Pashan, Pune, Maharashtra 411008, India.

出版信息

J Am Chem Soc. 2024 Sep 4;146(35):24209-24232. doi: 10.1021/jacs.4c05498. Epub 2024 Aug 22.

Abstract

Fundamental research on germanium as the central element in compounds for bond activation chemistry and catalysis has achieved significant feats over the last two decades. Designing strategies for small molecule activations and the ultimate catalysts established capitalize on the orbital modalities of germanium, apparently imitating the transition-metal frontier orbitals. There is a growing body of examples in contemporary research implicating the tunability of the frontier orbitals through avant-garde approaches such as geometric constrained empowered reactivity, bimetallic orbital complementarity, cooperative reactivity, etc. The goal of this Perspective is to provide readers with an overview of the emerging opportunities in the field of germanium-based catalysis by perceiving the underlying key principles. This will help to convert the discrete set of findings into a more systematic vision for catalyst designs. Critical exposition on the germanium's frontier orbitals participations evokes the key challenges involved in innovative catalyst designs, wherein viewpoints are provided. We close by addressing the forward-looking directions for germanium-based catalytic manifold development. We hope that this Perspective will be motivational for applied research on germanium as a constituent of pragmatic catalysts.

摘要

在过去二十年中,关于锗作为键活化化学和催化化合物中心元素的基础研究取得了重大成就。小分子活化的设计策略以及最终确立的催化剂利用了锗的轨道模式,显然是在模仿过渡金属的前沿轨道。当代研究中有越来越多的例子表明,通过几何约束增强反应性、双金属轨道互补性、协同反应性等前沿方法,可以调节前沿轨道。本综述的目的是通过洞察潜在的关键原理,为读者提供基于锗催化领域新兴机遇的概述。这将有助于将离散的研究结果转化为更系统的催化剂设计愿景。对锗前沿轨道参与的批判性阐述引发了创新催化剂设计中涉及的关键挑战,并提供了相关观点。我们通过探讨基于锗催化体系发展的前瞻性方向来结束本文。我们希望这篇综述能够激发将锗作为实用催化剂成分的应用研究。

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