High-entropy materials for sodium-ion batteries

Greeshma Caroline , Neeraja Nair , Shantikumar V. Nair , Prabeer Barpanda , Senthilkumar Baskar
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Abstract

The high-entropy concept is receiving attention as an advanced design strategy to functionalize material properties by tuning the disorderliness of the system. High-entropy materials have garnered significant recognition in the realm of energy storage due to their versatile and diverse material properties. In recent times, there has been active exploration of traditional materials as positive electrodes in sodium-ion batteries. Nevertheless, under profound sodiated conditions, these materials tend to exhibit sluggish kinetics and unfavourable phase transitions, leading to significant capacity degradation and subpar rate capability. High-entropy concepts successfully tune the configurational entropy by adjusting the stoichiometric balance of active/inactive cations to address the drawbacks. The recent developments and research progress on high-entropy materials for sodium-ion batteries are reviewed in this article, with a focus on the advantages of configurational entropy modulation for improving electrochemical performances. The positive aspects of high-entropy cathode materials as well as the key challenges are finally outlined to realize practical sodium-ion batteries.

用于钠离子电池的高熵材料
高熵概念作为一种先进的设计策略,通过调整系统的无序性来实现材料特性的功能化,正受到人们的关注。高熵材料因其多用途和多样化的材料特性,在能源存储领域获得了广泛认可。近来,人们积极探索将传统材料作为钠离子电池的正极。然而,在深度钠化条件下,这些材料往往会表现出迟缓的动力学和不利的相变,从而导致显著的容量衰减和不合格的速率能力。高熵概念通过调整活性/非活性阳离子的化学平衡,成功地调整了构型熵,从而解决了这些弊端。本文综述了钠离子电池高熵材料的最新发展和研究进展,重点介绍了构型熵调节在改善电化学性能方面的优势。最后概述了高熵阴极材料的积极方面以及实现实用钠离子电池所面临的关键挑战。
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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