MXenes公司
光催化
制氢
材料科学
硫化物
分解水
光催化分解水
纳米技术
硫化氢
氮化物
碳化物
催化作用
化学工程
化学
冶金
图层(电子)
工程类
生物化学
硫黄
作者
Asieh Akhoondi,Hadi Ghaebi,Lakshmanan Karuppasamy,Mohammed M. Rahman,Panneerselvam Sathishkumar
出处
期刊:Synthesis and sintering
[Synsint Research Group]
日期:2022-03-29
卷期号:2 (1): 37-54
被引量:13
标识
DOI:10.53063/synsint.2022.21106
摘要
At present, the composition and crystalline structure of transition metal nitrides or carbides (MXenes) and their derivatives are continuously expanding due to their unique physicochemical properties, especially in the photocatalytic field. Advances over the past four years have led to improved preparation of new MAX phases, resulting in new MXenes with excellent photo-thermal effect, considerable specific surface area, long-term stability and optimum activity. Since MXenes have good electrical conductivity and their bandgap is adjustable under the visible light range, this group is one of the best promising candidates for hydrogen production from photo-splitting of water as an environment-friendly method of converting sunlight to chemical energy. Progress in noble metal-free photocatalyst associated with more understanding of the fundamental mechanism of photocatalysis has enabled a proper choice of cocatalyst with better efficiency. In this study, the photocatalytic production of hydrogen through MXens as a support and co-catalyst on metal sulfide is summarized and discussed. Recent advances in the design and synthesis of MXenes-based metal sulfide nanocomposites to increase the efficiency of photocatalytic hydrogen production are then highlighted. Finally, the challenges and future prospects for the development of MXenes-based metal sulfide composites are outlined.
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