化学
合金
电解
催化作用
制氢
高压电解
电解水
氢
工艺工程
聚合物电解质膜电解
氢经济
化学工程
电解质
电极
有机化学
物理化学
工程类
生物化学
作者
Qiming Hu,Hongxin Wang,Chuanlin Dai,Xuefei Lei,Biao Wang,Xuanwen Liu
标识
DOI:10.1016/j.jelechem.2024.118313
摘要
The gradual deterioration of the energy environment has led to excessive carbon dioxide emissions, making it urgent to seek more environmentally friendly alternative energy sources. In this context, hydrogen as a green energy source has become increasingly important. Currently, water electrolysis is one of the main methods for hydrogen production. The ultimate goal of hydrogen production industry is to produce green hydrogen using renewable energy sources. Compared to the currently widely commercialized alkaline electrolysis (ALK), the initial commercialization of proton exchange membrane (PEM) electrolysis has many advantages, including short start-up time, high current density, high load elasticity, and high operating pressure. Commercial acidic water electrolysis usually relies on precious metal-based catalysts such as Ir/Pt, but high-entropy alloys are expected to reduce the use of precious metals, thereby saving costs, and high-entropy alloys have the characteristic of corrosion resistance. This paper introduces the latest research progress in the field of high-entropy alloy acidic water electrolysis catalysts, briefly outlining the advantages of acidic water electrolysis, and summarizing the progress of high-entropy alloy catalysts in HER and OER, as well as classifying based on the presence of precious metals. Finally, the challenges and opportunities faced by high-entropy alloy catalysts for acidic water electrolysis are discussed.
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