电解水
电解
催化作用
电催化剂
表征(材料科学)
纳米技术
分解水
制氢
耐久性
贵金属
工艺工程
电化学
电解质
材料科学
表面工程
化学
电极
工程类
物理化学
复合材料
光催化
生物化学
作者
Xiangbowen Du,Menghui Qi,Yong Wang
标识
DOI:10.1021/acs.accounts.4c00029
摘要
ConspectusThe development of an advanced energy conversion system for water electrolysis with high efficiency and durability is of great significance for a hydrogen-powered society. This progress relies on the fabrication of electrocatalysts with superior electrochemical performance. Despite decades of advancements in exploring high-performance noble and non-noble metal electrocatalysts, several challenges persist at both the micro- and macrolevels in the field of water electrolysis.At the microlevel, which encompasses electrocatalyst synthesis and characterization, design strategies for high-performance electrocatalysts have primarily focused on interface chemical engineering. However, comprehensive understanding and investigation of interface chemical engineering across various length scales, from micrometers to atomic scales, are still lacking. This deficiency hampers the rational design of catalysts with optimal performance. Under harsh reaction conditions, such as high bias potential and highly acidic or alkaline media, the surface of catalyst materials is susceptible to undergoing "reconstruction", deviating from what is observed through
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