Preparation and Modifications of MXene-Based Catalysts for Electrocatalytic Hydrogen Production: A Review

环境友好型 制氢 催化作用 电解 电解水 材料科学 分解水 氢燃料 纳米技术 生产(经济) 电解质 氢经济 能量载体 环境科学 电解法 废物管理 高压电解 工艺工程 能源消耗 持续性 电催化剂 MXenes公司 氢气储存 化学 能源
作者
Xiaohua Sun,Xingyu Luo,Xiaohan Li,Shanshan Li,Xinyu Zhao
出处
期刊:ACS applied nano materials [American Chemical Society]
卷期号:8 (47): 22501-22517 被引量:4
标识
DOI:10.1021/acsanm.5c02886
摘要

Due to current energy and environmental issues, H 2 is a suitable energy carrier and clean fuel because of its high energy storage density and environmentally friendly character. Electrolytic hydrogen production has received widespread attention for its green and sustainable nature. However, the high energy consumption of hydrogen production from water electrolysis makes it rely on high activity catalyst catalysts with high activity. The excellent conductivity, hydrophilicity, and corrosion resistance of two-dimensional MXene materials make it the best choice for catalytic electrolysis hydrogen production processes. However, there is currently a lack of detailed reports on safer and environmentally friendly synthesis methods and factors affecting their catalytic performance. Meanwhile, their application in hydrogen production has not been reviewed in detail, especially in the study of chemically assisted electrocatalytic hydrogen evolution. Therefore, this article introduces various preparation methods for MXenes, especially several synthesis strategies. Subsequently, various modification strategies are discussed in detail, revealing the essential reasons for performance improvement. Moreover, the recent applications of MXene materials in electrocatalytic hydrogen production are summarized. Finally, the challenges, suggestions, and opportunities of MXenes as catalysts for electrolytic hydrogen production are discussed. Finally, by synthesizing the current research landscape, this review identifies key challenges and outlines future opportunities for the development of MXene-based electrocatalysts, providing a foundational overview and outlook for their further development in electrolytic hydrogen production.
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