用于储能系统的含空位材料的合成、表征和应用

Jingjing Wang , Yiguang Zhou , Junyi Li , Lei Zhao , Ying Zhu , Yamei Wang , Rui Wu , Ying Wang , Daniel John Blackwood , Jun Song Chen
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引用次数: 0

摘要

在二次电池、电催化和超级电容器等不同能源系统中,引入空位是提高活性材料性能的一种广泛应用的方法。由于空位能产生丰富的局部电子和不饱和阳离子,因此空位的加入将显著改善储能材料的导电性和离子迁移性,并为其提供额外的活性位点。本文系统回顾了产生氧、氮或硒空位的不同方法,以及表征这些空位的技术。我们总结了空位在各类储能设备的活性材料中发挥的具体作用。此外,我们还深入探讨了与各种储能系统中空位技术的未来发展相关的研究进展和挑战。
本文章由计算机程序翻译,如有差异,请以英文原文为准。

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Synthesis, characterizations, and applications of vacancies-containing materials for energy storage systems

Introduction of vacancies is a widely practiced method to improve the performance of active materials in different energy systems, such as secondary batteries, electrocatalysis, and supercapacitors. Because vacancies can generate abundant localized electrons and unsaturated cations, the incorporation of vacancies will significantly improve the electrical conductivity, ion migration, and provides additional active sites of energy storage materials. This article systematically reviews different methods to generate oxygen, nitrogen, or selenium vacancies, and techniques to characterize these vacancies. We summarize the specific roles that vacancies play for the active materials in each type of energy storage devices. Additionally, we provide insights into the research progress and challenges associated with the future development of vacancies technology in various energy storage systems.

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