渗透力
反向电渗析
膜
缓压渗透
浓差极化
电渗析
可扩展性
生物污染
可再生能源
工艺工程
材料科学
化学工程
反渗透
正渗透
计算机科学
化学
工程类
电气工程
生物化学
数据库
作者
Shangfa Pan,Qi Li,Qianqian Fu,Jing Zeng,Peng Liu,Lei Jiang,Jun Gao
标识
DOI:10.1002/anie.202514637
摘要
Abstract Salinity gradient energy extracted with the reverse electrodialysis technique is attracting great interest and has been suggested as a promising renewable and stable energy source. However, the reverse electrodialysis relies on highly charge‐selective membranes, causing a range of problems including the selectivity–permeability trade‐off, strong concentration polarization, and strict requirement on the material structure, severely limiting its viability for large scale applications. We demonstrate these problems may be addressed by adopting the diffusio–osmosis process to generate power using sulfonated covalent framework membranes (COF), which does not require any charge selectivity. As a result, the membrane shows much higher power density compared to similar‐sized membranes and enables much higher scalability. Remarkably, the generator has loose requirement on material structure and could largely maintain its power generation performance even when a substantial number of pinholes are present. This could make the material fabrication significantly easier than before. We expect our work to advance the practical application of salinity gradient energy extraction.
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