固定化金属盐作为电催化剂的用途:燃料电池和有机电合成

IF 3.5 4区 化学 Q2 ELECTROCHEMISTRY ChemElectroChem Pub Date : 2024-11-26 DOI:10.1002/celc.202400445
Zachary A. Nguyen, Shelley D. Minteer
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引用次数: 0

摘要

在燃料和有机分子的电合成方面取得了重大进展,使其成为传统化学氧化还原试剂越来越可持续和经济的替代品。这些系统的早期版本在化学选择性方面面临挑战,因为施加的高过电位,随着分子电催化剂的引入,如金属salens (MSalens),这一问题得到了缓解。这些MSalens减少了所需的过电位,增加了周转率(TON),并且在其配体结构中具有简单的模块化,允许可调的选择性。虽然这些MSalen电催化剂通常用于工程简单,但下游分离通常昂贵且耗时。固定化MSalens解决了这些问题,使合成在较低的电位,实现高选择性,并促进直接分离。综述了MSalens在电合成中的应用以及固定化分子电催化剂在有机电合成中的应用。
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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Utility of Immobilized Metal Salens as Electrocatalysts: Fuel Cells and Organic Electrosynthesis

There have been significant advancements in the electrosynthesis of fuels and organic molecules, making it an increasingly sustainable and cost-effective alternative to traditional chemical redox reagents. Early versions of these systems faced challenges in chemoselectivity due to high applied overpotentials, which have been mitigated with the introduction of molecular electrocatalysts, like metal salens (MSalens). These MSalens reduce the required overpotentials, increase turnover numbers (TON), and have simple modularity within their ligand structure allowing for tunable selectivity. While these MSalen electrocatalysts are typically used homogeneously for engineering simplicity, downstream separations are often costly and time-consuming. Immobilization of MSalens addresses these issues by enabling synthesis at lower potentials, achieving high selectivity, and facilitating straightforward separations. This review explores the application of MSalens in electrosynthesis and immobilized molecular electrocatalysts in organic electrosynthesis.

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来源期刊
ChemElectroChem
ChemElectroChem ELECTROCHEMISTRY-
CiteScore
7.90
自引率
2.50%
发文量
515
审稿时长
1.2 months
期刊介绍: ChemElectroChem is aimed to become a top-ranking electrochemistry journal for primary research papers and critical secondary information from authors across the world. The journal covers the entire scope of pure and applied electrochemistry, the latter encompassing (among others) energy applications, electrochemistry at interfaces (including surfaces), photoelectrochemistry and bioelectrochemistry.
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