Singh Chanderpratap, Mukhopadhyay Subhabrata, Hod Idan
Department of Chemistry and Ilse, Katz Institute for Nanoscale Science and Technology, Ben- Gurion University of Negev, 8410501, Beer-Sheva, Israel.
Nano Converg. 2021 Jan 5;8(1):1. doi: 10.1186/s40580-020-00251-6.
In recent years, we are witnessing a substantially growing scientific interest in MOFs and their derived materials in the field of electrocatalysis. MOFs acting as a self-sacrificing template offer various advantages for the synthesis of carbon-rich materials, metal oxides, and metal nanostructures containing graphitic carbon-based materials benefiting from the high surface area, porous structure, and abundance of metal sites and organic functionalities. Yet, despite recent advancement in the field of MOF-derived materials, there are still several significant challenges that should be overcomed, to obtain better control and understanding on the factors determining their chemical, structural and catalytic nature. In this minireview, we will discuss recently reported advances in the development of promising methods and strategies for the construction of functional MOF-derived materials and their application as highly-active electrocatalysts for two important energy-related reactions: nitrogen reduction to produce ammonia, and CO reduction into carbon-based fuels. Moreover, a discussion containing assessments and remarks on the possible future developments of MOF-derived materials toward efficient electrocatalysis is included.
近年来,我们目睹了在电催化领域中,科学界对金属有机框架材料(MOFs)及其衍生材料的兴趣大幅增长。作为自牺牲模板的MOFs为合成富含碳的材料、金属氧化物以及包含石墨碳基材料的金属纳米结构提供了各种优势,这得益于其高表面积、多孔结构以及丰富的金属位点和有机官能团。然而,尽管MOF衍生材料领域最近取得了进展,但仍有几个重大挑战需要克服,以便更好地控制和理解决定其化学、结构和催化性质的因素。在这篇综述中,我们将讨论最近报道的在开发有前景的方法和策略以构建功能性MOF衍生材料方面的进展,以及它们作为高活性电催化剂在两个重要的与能源相关反应中的应用:氮还原制氨和CO还原为碳基燃料。此外,还包括对MOF衍生材料在高效电催化方面可能的未来发展的评估和评论。