评估商用 18650 和 26700 钠离子电池并与成熟的锂离子电池进行比较

IF 5.4 Q2 CHEMISTRY, PHYSICAL
Katharina Bischof , Vittorio Marangon , Michael Kasper , Aislim Aracil Regalado , Margret Wohlfahrt-Mehrens , Markus Hölzle , Dominic Bresser , Thomas Waldmann
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引用次数: 0

摘要

最近,第一批钠离子电池实现了商业化,并开始向消费者供应。此外,鉴于几家生产商宣布推出此类电池,人们对分析这些首批商用电池非常感兴趣,以便了解这些电池使用了哪些材料以及是如何设计的。本文研究了两种市售钠离子电池(1.5 Ah 18650 和 3.5 Ah 26700 的圆柱形电池)的以下方面:(i) 其电极化学性质;(ii) 放电时的热特性与所应用的 C 率的函数关系;(iii) 可用比能量;(iv) 电池阻抗。这些数据与通过对 18650 电池进行原位(死前)分析获得的电极厚度和电极面积相关联,并与商用锂离子电池的性能指标进行了比较讨论。比较结果表明,本文研究的 18650 钠离子电池(硬碳⎪⎪NaxNiyFezMn1-y-zO2)的比能量(∼128 Wh kg-1)与石墨⎪⎪LiFePO4锂离子电池相当,甚至更高。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Evaluation of commercial 18650 and 26700 sodium-ion cells and comparison with well-established lithium-ion cells

Recently, the first sodium-ion cells have been commercialized and have become available for consumers. Given, moreover, the exciting announcements by several producers of such battery cells, it is of great interest to analyze these first commercial cells in order to understand which materials are used and how these cells are designed. Herein, two types of commercially available sodium-ion battery cells (cylindrical 1.5 Ah 18650 and 3.5 Ah 26700 cells) are investigated regarding (i) their electrode chemistry, (ii) their thermal properties upon discharge as a function of the applied C rate, (iii) the available specific energy, and (iv) their cell impedance. The data are correlated with the electrode thickness and electrode area obtained from an ex situ (ante-mortem) analysis of the 18650 cells, and discussed in comparison with the performance metrics reported for commercial lithium-ion cells. This comparison reveals that the herein studied 18650 sodium-ion cells (hard carbon⎪⎪NaxNiyFezMn1-y-zO2) provide a comparable or even higher specific energy (∼128 Wh kg−1) than that of graphite⎪⎪LiFePO4 lithium-ion cells.

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来源期刊
CiteScore
9.10
自引率
0.00%
发文量
18
审稿时长
64 days
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