材料科学
金属锂
锂(药物)
降级(电信)
电池(电)
电解质
纳米技术
电化学
容量损失
电化学储能
电极
电流(流体)
储能
锂电池
金属
铅(地质)
机制(生物学)
集电器
罪魁祸首
接口(物质)
作者
Lujuan Yu,Xinyu Tian,Mengting Zheng,Wu Zhang,Chuang Sun,Shangshu Qian,Tiefeng Liu,Zeheng Li,Jun Lu
标识
DOI:10.1002/adfm.202524486
摘要
Abstract Anode‐free lithium metal batteries (AFLMBs), which eliminate excess lithium by pairing a bare current collector with a fully lithiated cathode, promise unprecedented energy density, cost efficiency, and safety. However, their practical viability is plagued by rapid capacity fade, primarily driven by lithium loss from inactive Li formation and electrolyte depletion. Crucially, the complex interfacial dynamics and evolution unique to AFLMBs, including current collector/electrolyte, Li deposit/current collector, and Li deposit/electrolyte, collectively amplify degradation mechanisms. These intricate interface networks render conventional lithium metal battery strategies largely ineffective. This review starts from deciphering the complex interplay between multiple interfaces, highlighting the critical role of limited lithium source in accelerating failure. To follow, compensatory and countermeasure strategies are summarized to provide a clear connection between failure pathway and targeted solutions, offering comprehensive roadmap for AFLMBs optimization. Insights on future development are also provided in this review.
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