Anisotropic Biomass Microfluidics via Directed Moisture Transport and Enhanced Water‐Binding Capacity for High‐Yield Solar‐driven Atmospheric Water Harvesting

Solar‐driven adsorption–desorption‐based atmospheric water harvesting (AD‐AWH) presents a promising strategy for sustainable freshwater production. However, conventional hygroscopic materials typically feature disordered internal architectures, severely hindering vapor diffusion and heat transfer. T...

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Bibliographic Details
Published in:	Advanced materials (Weinheim) 2026-02, Vol.38 (11), p.e22241-n/a
Main Authors:	Zhang, Lvfei, Yang, Tao, Niu, Yao, Xu, Xingtao, Helal, Mohamed H., Hessien, Mahmoud M., Qiu, Yanbin, Zhong, Yuanzhuo, Shen, Leqi, Ji, Xinwu, An, Meng, El‐Bahy, Zeinhom M., Zhang, Jia‐Han, Zhou, Yingtang, Li, Zhengtong
Format:	Article
Language:	English
Subjects:	Adsorption Aerogels atmospheric water harvesting Binding Biomass biomass‐based hygroscopic aerogels Desorption Diffusion directional freeze‐drying Evaporation rate Field tests Microfluidics Moisture Montmorillonite solar energy Tortuosity vertical pore structure Water yield
Citations:	Items that this one cites
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