电解质
材料科学
聚合物电解质
离子电导率
聚合物
锂(药物)
电化学
纳米技术
金属锂
储能
电导率
能量密度
化学工程
电流密度
电流(流体)
离子
金属
高能
离子键合
快离子导体
电化学储能
离子液体
商业化
集电器
导电体
热传导
导电聚合物
枝晶(数学)
作者
Puji Lestari Handayani,Gihyeon Kim,Ahyeon Cho,Yong-Ha Jeon,Naehoon Kim,Sang-Won Kim,Siyeon Ahn,Huiju Jeong,U Hyeok Choi
出处
期刊:Small
[Wiley]
日期:2025-11-14
卷期号:: e09182-e09182
标识
DOI:10.1002/smll.202509182
摘要
Abstract Solid polymer electrolytes (SPEs)‐based lithium metal batteries (LMBs) are at the forefront of next‐generation energy storage, offering remarkable energy density and safety. Despite their high potential, the practical use and commercialization of LMBs encounter two significant challenges: inadequate interfacial stability and low critical current density (CCD). One promising approach to tackle the problems is by designing an advanced SPE that simultaneously ensures uniform and high lithium‐ion transport. Achieving uniform ion transport is key to minimizing concentration gradients that lead to dendrite formation, while selective lithium‐ion conduction prevents anion accumulation, thereby improving interfacial stability. This review comprehensively examines recent progress in the development of uniform lithium‐ion transporting polymer electrolytes (ULPEs) and high lithium‐ion conducting polymer electrolytes (HLPEs). By combining the structural uniformity of ULPEs with the enhanced conductivity of HLPEs, uniform‐high lithium‐ion transporting polymer electrolytes (UHLPEs) have emerged as a promising class of materials capable of simultaneously ensuring high interfacial stability and supporting elevated CCD in practical LMBs. Key molecular design strategies, along with insights into ionic conductivity, electrochemical performance, and interfacial behavior, are systematically reviewed to provide a comprehensive understanding of the way to achieve high CCD, enhanced safety, and extend cycle life.
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