制氢
可再生能源
经济短缺
阴极保护
工艺工程
瓶颈
工业生产
环境污染
催化作用
电解
环境科学
能量载体
计算机科学
电解质
化学
工程类
阳极
政府(语言学)
环境保护
经济
哲学
电气工程
物理化学
语言学
凯恩斯经济学
嵌入式系统
生物化学
电极
作者
Cong Chen,Pierre‐Yves Olu,Ronglei Fan,Mingrong Shen
标识
DOI:10.1002/cssc.202401415
摘要
Hydrogen has been recognized as a green energy carrier, which can relieve energy shortage and environmental pollution. Currently, alkaline water electrolysis (AWE) driven by renewable energy to produce large‐scale green hydrogen is a mainstream technology. However, tardy cathodic hydrogen evolution reaction (HER) and stability issue of catalysts make it challenging to meet the industrial requirements. Ni‐based materials have attracted wide attention, thanks to their low cost and rich tuning possibilities, and many efforts have focused on their activity and stability. However, due to the significant discrepancy between laboratory and industrial conditions, these catalysts have not been widely deployed in industrial AWE. In this review, we first introduce the differences between laboratory and industrial stage, especially concerning equipment, protocols and evaluation metrics. To shorten these gaps, some strategies are proposed to improve the activity and stability of the Ni‐based catalysts. Besides, some key issues related to the catalysts in industrial AWE device are also emphasized, including reverse‐current and foreign ions in the electrolyte. Finally, the challenges and outlooks on the industrial alkaline AWE are discussed.
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