纳米结构过渡金属氮化物作为新型水电解电催化剂:现状与挑战

IF 22.2 Q1 CHEMISTRY, MULTIDISCIPLINARY
Liwei Lin , Shuqing Piao , Yejung Choi , Lulu Lyu , Hwichan Hong , Dohyeong Kim , Jeongyeon Lee , Wang Zhang , Yuanzhe Piao
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引用次数: 31

摘要

水电解因其在污水处理、微生物处理和直接电解大规模制氢等方面的潜在应用而引起了广泛的研究。在此背景下,过渡金属氮化物(TMNs)因其具有与金属元素相似的物理性质和独特的电子轨道结构而备受关注。内部氮的加入可以增加过渡金属d带的电子密度,使得TMNs的电子结构与某些贵金属相似,其态密度可以跨越费米能级。因此,TMNs具有与金属相似的电导率,具有优越的电催化性能。纳米结构的TMNs往往具有较大的分散性和较多的暴露活性位点,这直接提高了其作为电化学催化剂的催化活性和稳定性。本文从结构工程合成策略和电子工程合成策略两方面综述了具有代表性的TMNs基催化剂在提高电催化性能方面的研究进展,特别是在析氢、析氧和水裂解方面的研究进展。最后,我们进一步提出了纳米结构TMNs在高效制备和性能增强等电化学能量领域面临的挑战和研究方向。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Nanostructured Transition Metal Nitrides as Emerging Electrocatalysts for Water Electrolysis: Status and Challenges

Water electrolysis has aroused extensive research efforts due to its potential applications of sewage disposal, microorganism treatment and direct electrolysis for large-scale hydrogen production. At this background, transition metal nitrides (TMNs) have raised lots of attention, because their physical properties are similar to those of metallic elements and TMNs have unique electron orbital structures. The inner nitrogens can increase the electron density of d-bands of transition metals, so that the electronic structures of TMNs are similar with some precious metals, whose density of states can cross the Fermi level. Therefore, TMNs have similar conductivities with metals and possess superior electrocatalytic performance. Nanostructured TMNs tend to have relatively large dispersion and more exposed active sites, which have direct improvement for catalytic activity and stability as electrochemical catalysts. This review summarizes the representative progress of TMNs based catalysts on both synthetic strategies of structural engineering and electronic engineering for improving electrocatalytic performance, especially in hydrogen evolution, oxygen evolution and water splitting. Finally, we further propose the future challenges and research directions of nanostructured TMNs in the electrochemical energy fields of efficient preparations and performance enhancements.

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来源期刊
EnergyChem
EnergyChem Multiple-
CiteScore
40.80
自引率
2.80%
发文量
23
审稿时长
40 days
期刊介绍: EnergyChem, a reputable journal, focuses on publishing high-quality research and review articles within the realm of chemistry, chemical engineering, and materials science with a specific emphasis on energy applications. The priority areas covered by the journal include:Solar energy,Energy harvesting devices,Fuel cells,Hydrogen energy,Bioenergy and biofuels,Batteries,Supercapacitors,Electrocatalysis and photocatalysis,Energy storage and energy conversion,Carbon capture and storage
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