电解
催化作用
电解水
酒精氧化
化学
酒
机制(生物学)
电催化剂
析氧
氧气
氢
贵金属
无机化学
反应机理
氧还原
化学工程
组合化学
光化学
双键
制氢
分解水
铂金
氧化磷酸化
电化学
氢键
电极
作者
Wenjing Zhang,Bingrong Wang,Jing Li,Zidong Wei
出处
期刊:Chemical Science
[Royal Society of Chemistry]
日期:2026-01-01
卷期号:17 (27): 13344-13363
摘要
) and causes severe catalyst poisoning due to carbon-containing intermediate adsorption, whereas the retention pathway yields high-value aldehydes, ketones, or carboxylic acids. Achieving highly selective C-C bond retention is therefore essential for realizing the synergistic benefits of energy savings and product valorization. This review systematically explores recent research advances in selective alcohol oxidation to high-value chemicals, with an emphasis on the mechanism of C-C bond cleavage or retention pathways, as well as catalyst design based on noble metal materials. These design strategies collectively provide a solid foundation for achieving highly selective C-C bond retention in alcohol electrooxidation. With further advancements in this field, alcohol oxidation-assisted hydrogen production technology is expected to play an increasingly important role in future green hydrogen systems and biomass refining, contributing to the transition toward a sustainable and low-carbon chemical industry.
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