钠层氧化物中氧氧化还原的研究进展

Mubao Gu, Junling Xu, Xiaoyan Shi, Lianyi Shao, Zhipeng Sun
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摘要

与锂离子电池相比,钠离子电池因其地壳中丰富的钠资源和低廉的成本,正逐渐成为前景广阔的替代能源。然而,钠离子的离子半径较大,导致钠层氧化物阴极的能量密度较低。为解决这一问题,阴离子氧化还原技术受到了广泛关注,因为它提供了阳离子氧化还原之外的额外能力。本综述系统地总结了阴离子氧化还原的历史和基本机制,并按照缺钠层状氧化物、化学计量钠层状氧化物和富钠层状氧化物对采用阴离子氧化还原的钠层状氧化物的最新进展进行了分类和讨论。最后,还提出了阴离子氧化还原层状氧化物阴极的几种前景和挑战。这篇综述揭示了钠离子电池技术的潜在发展轨迹,并强调了利用阴离子氧化还原技术的全部能力进行储能应用的途径。
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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Research progress of oxygen redox in sodium-layered oxides

Sodium-ion batteries are emerging as promising alternative energy sources compared to lithium-ion batteries, due to the abundant sodium resources in Earth's crust and their low cost. Nevertheless, the larger ionic radius of sodium ions leads to minor energy density in sodium-layered oxide cathodes. To address this, anionic redox has attracted significant attention as it provides additional capacity beyond cationic redox. In this comprehensive review, the history and fundamental mechanisms of anionic redox are systematically summarized, and the recent advancements in sodium-layered oxides with anionic redox is categorized and discussed according to deficient sodium-layered oxides, stoichiometric sodium-layered oxides, and sodium-rich layered oxides. Finally, several prospects and challenges for anionic redox-layered oxide cathodes have also been proposed. This review sheds light on the potential trajectory of sodium-ion battery technology and highlights the pathways to harness the full capabilities of anionic redox for energy storage applications.

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