材料科学
自愈
可伸缩电子设备
纳米技术
软质材料
电池(电)
储能
数码产品
电极
电解质
软机器人
超级电容器
计算机科学
机器人
电气工程
电化学
工程类
医学
量子力学
替代医学
化学
功率(物理)
人工智能
物理化学
病理
物理
作者
Chaonan Gu,Mengke Wang,Kaihuang Zhang,Jingjing Li,Yilin Lu,Yihan Cui,Yunfei Zhang,Chun‐Sen Liu
标识
DOI:10.1002/adma.202208392
摘要
Abstract Next‐generation energy storage devices should be soft, stretchable, and self‐healable. Previously reported self‐healable batteries mostly possess limited stretchability and rely on healable electrodes or electrolytes rather than achieving full‐device self‐healability. Herein, an all‐component self‐bonding strategy is reported to obtain an all‐eutectogel soft battery (AESB) that simultaneously achieves full‐cell autonomous self‐healability and omnidirectional intrinsic stretchability (>1000% areal strain) over a broad temperature range (−20~60 °C). Without requiring any external stimulus, the five‐layered soft battery can efficiently recover both its mechanical and electrochemical performance at full‐cell level. The developed AESB can be easily configured into various 3D architectures with highly interfacial compatible eutectogel electrodes, electrolyte, and substrate, presenting an excellent opportunity for the development of embodied energy technologies. The present work provides a general and user‐friendly soft electronic material platform for fabricating a variety of intrinsic self‐healing stretchable multi‐layered electronics, which are promising beyond the field of energy storage, such as displays, sensors, circuits, and soft robots.
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