材料科学
膜
聚吡咯
盐度
纳米技术
限制电流
化学工程
功率密度
超级电容器
制作
离子键合
渗透力
功率(物理)
电化学
电极
复合材料
离子
正渗透
化学
聚合物
有机化学
聚合
反渗透
量子力学
病理
生物化学
医学
物理化学
工程类
物理
生态学
生物
替代医学
作者
Changchun Yu,Xuanbo Zhu,Caiyun Wang,Yahong Zhou,Xiaoteng Jia,Lei Jiang,Xiao Liu,Gordon G. Wallace
出处
期刊:Nano Energy
[Elsevier]
日期:2018-09-01
卷期号:53: 475-482
被引量:62
标识
DOI:10.1016/j.nanoen.2018.08.073
摘要
Inspired by biological channels that occur in nature, smart biomimetic nanofluidic systems have been built to enable salinity power harvesting. However, most of these smart membranes are composites containing two incompatible components that require sophisticated fabrication techniques, thus limiting practical applications. Here, a single component polypyrrole membrane has been developed via a simple self-assembly process. The membrane provides asymmetric wettability on either side, cytocompatibility and an electrochemically tuneable ionic conductance. The ability of this membrane to capture energy arising from a salinity gradient has been demonstrated. The system can provide a stable current density over 16 h using artificial seawater and river water to provide the salinity gradient, and an energy density of 1.4 Wh/m2 was obtained. The cytocompatibility and ability to generate salinity power make this membrane a promising material for biomimetic applications.
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