硅
电池(电)
阳极
材料科学
锂(药物)
纳米技术
工程物理
计算机科学
工程类
化学
光电子学
电极
心理学
物理化学
功率(物理)
物理
精神科
量子力学
作者
Josefine McBrayer,Marco‐Tulio F. Rodrigues,Maxwell C. Schulze,Daniel P. Abraham,Christopher A. Apblett,Ira Bloom,Gerard M. Carroll,Andrew M. Colclasure,Fang Chen,Katharine L. Harrison,Gao Liu,Shelley D. Minteer,Nathan R. Neale,Gabriel M. Veith,Christopher S. Johnson,John T. Vaughey,Anthony K. Burrell,B. Cunningham
出处
期刊:Nature Energy
[Springer Nature]
日期:2021-09-21
卷期号:6 (9): 866-872
被引量:192
标识
DOI:10.1038/s41560-021-00883-w
摘要
High-energy batteries for automotive applications require cells to endure well over a decade of constant use, making their long-term stability paramount. This is particularly challenging for emerging cell chemistries containing silicon, for which extended testing information is scarce. While much of the research on silicon anodes has focused on mitigating the consequences of volume changes during cycling, comparatively little is known about the time-dependent degradation of silicon-containing batteries. Here we discuss a series of studies on the reactivity of silicon that, collectively, paint a picture of how the chemistry of silicon exacerbates the calendar aging of lithium-ion cells. Assessing and mitigating this shortcoming should be the focus of future research to fully realize the benefits of this battery technology. Silicon-containing batteries are increasingly becoming a reality in the mass market, but their calendar aging behaviours have received comparatively little attention. Researchers from the Silicon Consortium Project discuss the issues surrounding the calendar lifetime of silicon anodes for lithium-ion batteries.
科研通智能强力驱动
Strongly Powered by AbleSci AI