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Polyanionic Insertion Materials for Sodium-Ion Batteries

机译:钠离子电池用聚阴离子插入材料

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Efficient energy storage is a driving factor propelling myriads of mobile electronics, electric vehicles and stationary electric grid storage. Li-ion batteries have realized these goals in a commercially viable manner with ever increasing penetration to different technology sectors across the globe. While these electronic devices are more evident and appealing to consumers, there has been a growing concern for micro-to-mega grid storage systems. Overall, the modern world demands energy in terawatt' scale. It needs a multipronged approach with alternate technologies complementing the Li-ion batteries. One such viable approach is to design and implement Na-ion batteries. With the uniform geographical distribution, abundance and materials economy of Na resources as well as a striking operational similarity to Li-ion batteries, Na-ion batteries have commercial potential, particularly for applications unrestricted by volumetric/gravimetric energy density. In pursuit of the development of Na-ion batteries, suites of oxides, sulfides, fluorides, and polyanionic materials have been reported in addition to several organic complexes. This article gives an overview of recent progress in polyanionic framework compounds, with emphasis on high-voltage candidates consisting of earth abundant elements. Guided by ternary phase diagrams, recently discovered and potential cathode candidates will be discussed gauging their performance, current status, and future perspectives.
机译:高效的能量存储是推动无数移动电子,电动汽车和固定电网存储的驱动因素。锂离子电池已经以商业可行的方式实现了这些目标,并且在全球范围内不断渗透到不同的技术领域。尽管这些电子设备更加明显并吸引了消费者,但对微型到大型网格存储系统的关注却越来越大。总体而言,现代世界需要兆瓦级的能源。它需要采用多管齐下的方法,并采用替代技术来补充锂离子电池。一种可行的方法是设计和实现Na离子电池。由于Na资源的均匀地理分布,丰富的材料经济性以及与锂离子电池惊人的相似性,Na离子电池具有商业潜力,特别是对于不受体积/重力能量密度限制的应用。为了发展钠离子电池,除几种有机配合物外,还报道了一系列氧化物,硫化物,氟化物和聚阴离子材料。本文概述了聚阴离子骨架化合物的最新进展,重点介绍了由富含稀土元素组成的高压候选物。在三元相图的指导下,将讨论最新发现的和潜在的阴极候选物,以评估其性能,当前状态和未来前景。

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