卤化物
相容性(地球化学)
阳极
材料科学
电解质
电化学
金属锂
卤化银
纳米技术
导电体
金属
无机化学
金属卤化物
锂(药物)
电流密度
能量密度
作者
Chunlei Zhao,Yilin Zhang,Fiaz Hussain,Zhepu Shi,Fucheng Ren,Yusheng Zhao,Xueliang Sun,Wei Xia
摘要
conductivity, excellent compatibility with cathodes, and good mechanical deformability. However, many of these conductors exhibit chemical and electrochemical instability when in contact with the reductive anodes, which hinders the direct use of lithium metal as anodes with extraordinarily high specific capacities and limits the overall energy density of halide-based ASSLBs. Therefore, enhancing the anode compatibility of halide SSEs has become a critical task in ASSLB development and has attracted broad research interest. Herein, the underlying mechanisms responsible for the instability of halide SSEs against the lithium anode are elucidated based on both experimental observations and theoretical calculations. Recent strategies and progress aimed at improving the compatibility of halide SSEs with lithium anodes are summarized. Moreover, the effects of pressure and volume changes on the interfacial compatibility between halide SSE and lithium metal are discussed. In addition, the current challenges and future research directions are analyzed, aiming to provide theoretical insights and guidance to support further advancements in Li-M-X type solid-state electrolytes and all-solid-state lithium batteries.
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