膜
材料科学
离子
渗透力
纳米技术
离子运输机
功率密度
光电子学
浓差极化
化学物理
电场
功率(物理)
化学
正渗透
有机化学
物理
量子力学
生物化学
反渗透
作者
Jianyu Yin,Peixue Jia,Ziqi Ren,Qixiang Zhang,Wenzhong Lü,Qianqian Yao,Mingfang Deng,Xubin Zhou,Yihua Gao,Nishuang Liu
标识
DOI:10.1002/adma.202417944
摘要
with rechargeability, surpassing similar devices. Density functional theory further reveals that the energy barrier of ion transport in charge-gradient membranes is lower than that in nongradient membranes. More impressively, the device can still be applied as a linear self-powered pressure sensor for monitoring human activities after the ion gradient is completely dissipated. This study elucidates the key role of the structure and design of ion-selective membranes in the artificial gel power generation system, providing new insights into the further development and multifunctional application of flexible gel power source.
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