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用于先进电催化的非晶氧化物纳米结构

Amorphous Oxide Nanostructures for Advanced Electrocatalysis.

作者信息

Li Leigang, Shao Qi, Huang Xiaoqing

机构信息

Institute of Functional Nano and Soft Materials (FUNSOM), Soochow University, No.199, Ren'ai Road, Suzhou, 215123, Jiangsu, P. R. China.

College of Chemistry, Chemical Engineering and Materials Science Soochow University, No.199, Ren'ai Road, Suzhou, 215123, Jiangsu, P. R. China.

出版信息

Chemistry. 2020 Mar 26;26(18):3943-3960. doi: 10.1002/chem.201903206. Epub 2019 Oct 15.

Abstract

Amorphous oxides have attracted special attention as advanced electrocatalysts owing to their unique local structural flexibility and attractive electrocatalytic properties. With abundant randomly oriented bonds and surface-exposed defects (e.g., oxygen vacancies) as active catalytic sites, the adsorption/desorption of reactants can be optimized, leading to superior catalytic activities. Amorphous oxide materials have found wide electrocatalytic applications ranging from hydrogen evolution and oxygen evolution to oxygen reduction, CO electroreduction and nitrogen electroreduction. The amorphous oxide electrocatalysts even outperform their crystalline counterparts in terms of electrocatalytic activity and stability. Despite of the merits and achievements for amorphous oxide electrocatalysts, there are still issues and challenges existing for amorphous oxide electrocatalysts. There are rarely reviews specifically focusing on amorphous oxide electrocatalysts and therefore it is imperative to have a comprehensive overview of the research progress and to better understand the achievements and issues with amorphous oxide electrocatalysts. In this minireview, several general preparation methods for amorphous oxides are first introduced. Then, the achievements in amorphous oxides for several important electrocatalytic reactions are summarized. Finally, the challenges and perspectives for the development of amorphous oxide electrocatalysts are outlined.

摘要

非晶态氧化物因其独特的局部结构灵活性和诱人的电催化性能,作为先进的电催化剂受到了特别关注。由于具有大量随机取向的键和作为活性催化位点的表面暴露缺陷(如氧空位),反应物的吸附/解吸可以得到优化,从而产生优异的催化活性。非晶态氧化物材料已在从析氢、析氧到氧还原、CO电还原和氮电还原等广泛的电催化应用中得到应用。非晶态氧化物电催化剂在电催化活性和稳定性方面甚至优于其晶态对应物。尽管非晶态氧化物电催化剂有诸多优点和成就,但仍存在一些问题和挑战。很少有综述专门关注非晶态氧化物电催化剂,因此有必要全面概述研究进展,以便更好地了解非晶态氧化物电催化剂的成就和问题。在本综述中,首先介绍了几种非晶态氧化物的通用制备方法。然后,总结了非晶态氧化物在几个重要电催化反应中的成就。最后,概述了非晶态氧化物电催化剂发展面临的挑战和前景。

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