电解质
快离子导体
材料科学
电池(电)
锂(药物)
导电体
电导率
阴极
离子
导线
电极
离子电导率
化学
复合材料
热力学
物理
物理化学
内分泌学
功率(物理)
有机化学
医学
作者
Yuxiang Li,S. N. Song,Han‐Seul Kim,K. Nomoto,Hanvin Kim,Xueying Sun,Satoshi Hori,Kota Suzuki,Naoki Matsui,Masaaki Hirayama,Teruyasu Mizoguchi,Takashi Saito,Takashi Kamiyama,Ryoji Kanno
出处
期刊:Science
[American Association for the Advancement of Science (AAAS)]
日期:2023-07-06
卷期号:381 (6653): 50-53
被引量:151
标识
DOI:10.1126/science.add7138
摘要
No design rules have yet been established for producing solid electrolytes with a lithium-ion conductivity high enough to replace liquid electrolytes and expand the performance and battery configuration limits of current lithium ion batteries. Taking advantage of the properties of high-entropy materials, we have designed a highly ion-conductive solid electrolyte by increasing the compositional complexity of a known lithium superionic conductor to eliminate ion migration barriers while maintaining the structural framework for superionic conduction. The synthesized phase with a compositional complexity showed an improved ion conductivity. We showed that the highly conductive solid electrolyte enables charge and discharge of a thick lithium-ion battery cathode at room temperature and thus has potential to change conventional battery configurations.
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