吸附剂
吸附
水蒸气
环境科学
化学工程
材料科学
工艺工程
化学
气象学
工程类
物理
有机化学
作者
Hai Feng Zhu,Renyuan Li,Hao Guo
出处
期刊:Matter
[Elsevier BV]
日期:2022-09-01
卷期号:5 (9): 2578-2581
被引量:11
标识
DOI:10.1016/j.matt.2022.07.030
摘要
Harvesting water from ambient air has been an emerging technology to address the critical challenge of water shortage at a global scale. In a recent study published in Cell Reports Physical Science, Wang and colleagues created a novel solar-driven atmospheric water harvester featuring a hydrogel-based composite sorbent (PCLG) and a rationally designed honeycomb structure, which demonstrated a superior water uptake capacity and greatly enhanced vapor transportation efficiency. Harvesting water from ambient air has been an emerging technology to address the critical challenge of water shortage at a global scale. In a recent study published in Cell Reports Physical Science, Wang and colleagues created a novel solar-driven atmospheric water harvester featuring a hydrogel-based composite sorbent (PCLG) and a rationally designed honeycomb structure, which demonstrated a superior water uptake capacity and greatly enhanced vapor transportation efficiency. High-yield and scalable water harvesting of honeycomb hygroscopic polymer driven by natural sunlightWang et al.Cell Reports Physical ScienceJune 22, 2022In BriefThere remains a large gap between atmospheric water harvesting materials development and their practical application. Here, Wang et al. report a hydrogel-based composite sorbent with high adsorption capacity per unit volume, demonstrated to harvest 2.9 L/m2/day outdoors under natural sunlight as part of an integrated device with a honeycomb structure. Full-Text PDF Open Access
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