蒸发器
蒸发
堵塞
材料科学
混合(物理)
环境科学
海水淡化
盐(化学)
环境工程
多孔性
化学工程
工艺工程
化学
复合材料
热力学
机械工程
工程类
膜
热交换器
物理
历史
物理化学
考古
量子力学
生物化学
作者
Luncao Li,W. F. Mader,Chao Fu,Tingting Luo,Xiaoyu Cui,Yan Li,Linmei Zhang,Xuesong Li,Kunkun Fu
标识
DOI:10.1002/smtd.202500317
摘要
Abstract To address the persistent challenge of salt accumulation and clogging in solar evaporators, a comprehensive strategy aimed at reducing salt ion concentration at the evaporation interface by minimizing flow loss (mixing loss and friction loss) is proposed. The core principle is minimizing mixing loss to enhance the water supply efficiency to the evaporation interface, while also balancing friction loss influence by taking away salt ions from the evaporation interface. Utilizing this methodology, a novel solar evaporator that includes a millimeter‐scale channel at its core, surrounded by a homogenized micro‐porosity structure created using the projection microstereolithography technique is developed. The results demonstrate that the proposed solar evaporator achieves an exceptional evaporation rate of 3.42 kg m −2 h −1 in 20 wt.% hypersaline brines over a continuous operation period of 120 h under 1 sun irradiance. These results represent a significant achievement in the development of highly efficient and salt‐tolerant solar evaporators.
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