析氧
材料科学
分解水
电解水
阳极
氧气
纳米技术
电解
电催化剂
催化作用
化学工程
电极
电化学
化学
光催化
电解质
工程类
物理化学
生物化学
有机化学
作者
Lihai Wei,Dexing Meng,Qianqian Jiang,Wei Wang,Jianguo Tang
标识
DOI:10.1016/j.jece.2022.108591
摘要
With the rapid development of the world economy, green energy, many methods of hydrogen and oxygen as the most popular green energy gases from water splitting are constantly emerging. Anodic oxygen evolution reaction (OER), as a half-reaction of water electrolysis involving the transfer of four electrons, is thermodynamically slow, leading to its poor performance. To solve this difficult problem, many oxygen evolutions of electrocatalytic materials have emerged, especially some three-dimensional materials, which can easily interact with nickel-iron, owing to advantages of controllable electronic channels and three-dimensional structures. But, the weak electrical conductivity and thermodynamic instability directly lead to weak oxygen evolution properties. Various modification methods have been invested, such as additions of transition metal cations or non-metal anions, the introduction of the conductive supports or agents, adjustment with the three-dimensional structures, formation of heterojunctions, etc, which can complement each other's superiorities, thus improving the oxygen evolution performances. The successful modification of these materials can illustrate the great opportunities for oxygen evolution functional materials, which also supplies a great possibility to replace the expensive electrocatalysts in the future. More importantly, catalytic composite materials have taken a firm step in the field of low-carbon environmental protection and green energy materials, meanwhile playing an important role in the field of artificial and sustainable energy development.
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