阳极
材料科学
电解质
分离器(采油)
金属锂
金属
锂离子电池的纳米结构
锂(药物)
快离子导体
储能
离子液体
纳米技术
离子电导率
化学工程
电极
冶金
催化作用
化学
有机化学
物理化学
功率(物理)
内分泌学
工程类
物理
热力学
医学
量子力学
作者
Chunpeng Yang,Kun Fu,Ying Zhang,Emily Hitz,Liangbing Hu
标识
DOI:10.1002/adma.201701169
摘要
High‐energy lithium‐metal batteries are among the most promising candidates for next‐generation energy storage systems. With a high specific capacity and a low reduction potential, the Li‐metal anode has attracted extensive interest for decades. Dendritic Li formation, uncontrolled interfacial reactions, and huge volume effect are major hurdles to the commercial application of Li‐metal anodes. Recent studies have shown that the performance and safety of Li‐metal anodes can be significantly improved via organic electrolyte modification, Li‐metal interface protection, Li‐electrode framework design, separator coating, and so on. Superior to the liquid electrolytes, solid‐state electrolytes are considered able to inhibit problematic Li dendrites and build safe solid Li‐metal batteries. Inspired by the bright prospects of solid Li‐metal batteries, increasing efforts have been devoted to overcoming the obstacles of solid Li‐metal batteries, such as low ionic conductivity of the electrolyte and Li–electrolyte interfacial problems. Here, the approaches to protect Li‐metal anodes from liquid batteries to solid‐state batteries are outlined and analyzed in detail. Perspectives regarding the strategies for developing Li‐metal anodes are discussed to facilitate the practical application of Li‐metal batteries.
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