海水淡化
蒸发
蒸发器
太阳能淡化
环境科学
太阳能
工艺工程
电
低温热脱盐
海水
海水淡化
材料科学
缺水
光热治疗
环境工程
地热脱盐
水能关系
能源消耗
过程(计算)
除霜
水冷
废物管理
能量(信号处理)
蒸发冷却器
节能
能量回收
水流
水循环
传热
高效能源利用
作者
Meng Wang,Zixiang He,Xinlu Zhang,Peng Xie,Yen Wei,Shiyu Zhang,Ke Wang,Rupeng Wang,Nanqi Ren,Shih‐Hsin Ho
出处
期刊:ACS Nano
[American Chemical Society]
日期:2026-02-20
卷期号:20 (8): 7249-7259
标识
DOI:10.1021/acsnano.5c20987
摘要
Solar desalination holds promise for alleviating water scarcity but faces challenges in cold and low-light environments. Inspired by the environmental heat utilization and energy-storage capability of frost-resistant beetles, we designed a sandwich-structured environmental energy utilization evaporator (EUE) incorporating energy-storage microcapsules within a PVA hydrogel and a photothermal PV-Joule heating module. The EUE achieves evaporation rates of 2.12 and 10.05 kg m–2 h–1 under photothermal and dual photothermal PV-Joule heating modes, respectively. During darkness, the photosynthesis-like operation utilizes stored PV electricity to maintain stable evaporation. Energy flow modeling indicates a 174% improvement in total energy input for evaporation compared to that of single-solar desalination. Furthermore, machine-learning simulations validate the system’s performance across diverse climates, demonstrating consistent operation in cold regions. The EUE achieves excellent all-day water production (∼43.9 kg m–2), illustrating stable and high-performance evaporation in cold climates. This research provides a viable approach to all-weather desalination and a proof-of-concept for expanding solar-driven evaporation applications.
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