缓压渗透
可再生能源
能量收集
工艺工程
渗透力
电势能
材料科学
渗透
反向电渗析
正渗透
渗透压
能量转换
环境科学
结垢
盐度
环境工程
光电子学
化学
膜
电渗析
能量(信号处理)
反渗透
电气工程
生态学
工程类
物理
统计
数学
热力学
生物
生物化学
作者
Wei Shan Hsu,Anant Preet,Taiyu Lin,Tzu En Lin
出处
期刊:Molecules
[MDPI AG]
日期:2021-09-08
卷期号:26 (18): 5469-5469
被引量:8
标识
DOI:10.3390/molecules26185469
摘要
Harvesting salinity gradient energy, also known as “osmotic energy” or “blue energy”, generated from the free energy mixing of seawater and fresh river water provides a renewable and sustainable alternative for circumventing the recent upsurge in global energy consumption. The osmotic pressure resulting from mixing water streams with different salinities can be converted into electrical energy driven by a potential difference or ionic gradients. Reversed-electrodialysis (RED) has become more prominent among the conventional membrane-based separation methodologies due to its higher energy efficiency and lesser susceptibility to membrane fouling than pressure-retarded osmosis (PRO). However, the ion-exchange membranes used for RED systems often encounter limitations while adapting to a real-world system due to their limited pore sizes and internal resistance. The worldwide demand for clean energy production has reinvigorated the interest in salinity gradient energy conversion. In addition to the large energy conversion devices, the miniaturized devices used for powering a portable or wearable micro-device have attracted much attention. This review provides insights into developing miniaturized salinity gradient energy harvesting devices and recent advances in the membranes designed for optimized osmotic power extraction. Furthermore, we present various applications utilizing the salinity gradient energy conversion.
科研通智能强力驱动
Strongly Powered by AbleSci AI