材料科学
电解质
快离子导体
膜
制作
离子电导率
阳极
纳米技术
纳米尺度
化学工程
离子键合
锂(药物)
储能
电导率
离子
电极
功率(物理)
有机化学
内分泌学
工程类
物理
病理
生物
物理化学
医学
化学
量子力学
替代医学
遗传学
作者
Zachary D. Hood,Hui Wang,Amaresh Samuthira Pandian,Rui Peng,Kyle D. Gilroy,Zachary D. Hood,Chengdu Liang,Younan Xia
标识
DOI:10.1002/aenm.201800014
摘要
Abstract Solid electrolytes represent a critical component in future batteries that provide higher energy and power densities than the current lithium‐ion batteries. The potential of using ultrathin films is among the best merits of solid electrolytes for considerably reducing the weight and volume of each battery unit, thereby significantly enhancing the energy density. However, it is challenging to fabricate ultrathin membranes of solid electrolytes using the conventional techniques. Here, a new strategy is reported for fabricating sub‐micrometer‐thick membranes of β‐Li 3 PS 4 solid electrolytes via tiled assembly of shape‐controlled, nanoscale building blocks. This strategy relies on facile, low‐cost, solution‐based chemistry to create membranes with tunable thicknesses. The ultrathin membranes of β‐Li 3 PS 4 show desirable ionic conductivity and necessary compatibility with metallic lithium anodes. The results of this study also highlight a viable strategy for creating ultrathin, dense solid electrolytes with high ionic conductivities for the next‐generation energy storage and conversion systems.
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