材料科学
电解水
电解
可再生能源
纳米技术
制氢
分解水
析氧
工艺工程
生化工程
电化学
催化作用
物理化学
电极
光催化
化学
工程类
电气工程
电解质
生物化学
作者
Zhanwu Lei,Tanyuan Wang,Bote Zhao,Wenbin Cai,Yang Liu,Shuhong Jiao,Qing Li,Ruiguo Cao,Meilin Liu
标识
DOI:10.1002/aenm.202000478
摘要
Abstract Hydrogen is a clean and renewable energy carrier for powering future transportation and other applications. Water electrolysis is a promising option for hydrogen production from renewable resources such as wind and solar energy. To date, tremendous efforts have been devoted to the development of electrocatalysts and membranes for water electrolysis technology. In principle, water electrolysis in acidic media has several advantages over that in alkaline media, including favorable reaction kinetics, easy product separation, and low operating pressure. However, acidic water electrolysis poses higher requirements for the catalysts, especially the ones for the oxygen evolution reaction. It is a grand challenge to develop highly active, durable, and cost‐effective catalysts to replace precious metal catalysts for acidic water oxidation. In this article, an overview is presented of the latest developments in design and synthesis of electrocatalysts for acidic water oxidation, emphasizing new strategies for achieving high electrocatalytic activity while maintaining excellent durability at low cost. In particular, the reaction pathways and intermediates are discussed in detail to gain deeper insight into the oxygen evolution reaction mechanism, which is vital to rational design of more efficient electrocatalysts. Further, the remaining scientific challenges and possible strategies to overcome them are outlined, together with perspectives for future‐generation electrocatalysts that exploit nanoscale materials for water electrolysis.
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