尿素合成中促进C-N偶联反应的电催化剂设计原理

EcoEnergy Pub Date : 2024-10-05 DOI:10.1002/ece2.72
Jingwei Li, Shengkai Li, Yaohao Zhang, Zhao-Qing Liu
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引用次数: 0

摘要

电催化C-N偶联反应可以实现绿色可持续的尿素合成以及CO2转化和固氮。然而,电催化C-N偶联反应仍然面临着反应物质吸附和活化困难、反应中间体数量多、反应能垒高、反应动力学惰性等挑战,导致尿素产率和法拉迪效率较低。高效催化剂的开发是提高尿素产率和Faradic效率的关键。综述了尿素电催化C-N偶联的发展历史和基本原理,分析了纳米结构-催化活性关系以及电子结构-催化活性关系,讨论了尿素电催化C-N偶联的主要反应机理。在此基础上,提出了设计高效碳氮偶联催化剂的思路。最后,总结了尿素电催化C-N偶联的研究现状,并对开发高效电催化剂和C-N偶联机理进行了展望。
本文章由计算机程序翻译,如有差异,请以英文原文为准。

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Principles of designing electrocatalysts to boost C–N coupling reactions for urea synthesis

The electrocatalytic C–N coupling reaction can achieve green and sustainable urea synthesis as well as CO2 conversion and nitrogen fixation. However, the electrocatalytic C–N coupling reaction still faces challenges such as difficult adsorption and activation of reactive species, a large number of reactive intermediates, high reaction energy barriers, and inert reactive kinetics, resulting in the low urea yielding rate and Faradic efficiency. The development of efficient catalysts is key to improve the urea yielding rate and Faradic efficiency. This review covers the development history and basic principles of electrocatalytic C–N coupling for urea production, analyzes the nanostructure–catalytic activity relationship as well as the electronic structure–catalytic activity relationship, and discusses the main reaction mechanism of electrocatalytic C–N coupling for urea production. Based on these analyses, the concept of designing efficient C–N coupling catalysts is derived. Finally, the research status of electrocatalytic C–N coupling for urea synthesis is summarized, and the prospect for developing efficient electrocatalysts and C–N coupling mechanism are proposed.

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Issue Information Advances in the understanding of selective CO2 reduction catalysis Sustainability assessment of seawater splitting: Prospects, challenges, and future directions High-performance vanadium oxide-based aqueous zinc batteries: Organic molecule modification, challenges, and future prospects Principles of designing electrocatalysts to boost C–N coupling reactions for urea synthesis
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