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用于高效露水收集的图案化混合表面

Patterned Hybrid Surfaces for Efficient Dew Harvesting.

作者信息

Wei Lan, Soo Han Sen, Chen Zhong

机构信息

School of Materials Science and Engineering, Nanyang Technological University, 50 Nanyang Avenue, Singapore 639798, Singapore.

School of Chemistry, Chemical Engineering and Biotechnology, Nanyang Technological University, 21 Nanyang Link, Singapore 637371, Singapore.

出版信息

ACS Appl Mater Interfaces. 2024 Sep 25;16(38):51715-51726. doi: 10.1021/acsami.4c11079. Epub 2024 Sep 13.

DOI:10.1021/acsami.4c11079
PMID:39268641
Abstract

Dew harvesting, minimally influenced by climate and geographical locations, is an ideal method for addressing water shortage problems. Superhydrophilic surfaces, characterized by their highest affinity for water, are particularly attractive for this purpose as they can attract more water molecules via condensation. However, a significant challenge arises from the high surface capillary force that impedes water from sliding down and being effectively collected. The resulting water film on the superhydrophilic surface tends to stay around the edge of the water collection surface, leading to evaporation loss and reduced collection efficacy. To overcome this problem, triangular patterns with low surface adhesion to water were introduced at the edge of superhydrophilic surfaces. This modification, achieved through a wet chemical method and masked oxygen plasma treatment, has significantly improved the efficiency of water collection. Results indicate that the hybrid surface reduced the time for the first water droplet to slide down by half and increased water collection efficiency by 78% compared to uniform superhydrophilic surfaces and by 536% compared to uniform superhydrophobic surfaces under a relative humidity of 55% with a temperature difference of 15 °C. The underlying principles were elucidated through computational simulations, and the mechanisms driving the enhancement in collection efficiency were explained.

摘要

露水收集受气候和地理位置的影响最小,是解决水资源短缺问题的理想方法。具有对水的最高亲和力的超亲水表面,因其可通过冷凝吸引更多水分子,在此方面特别具有吸引力。然而,一个重大挑战来自于高表面毛细力,它阻碍水滑落并有效收集。超亲水表面上形成的水膜往往停留在集水表面的边缘,导致蒸发损失并降低收集效率。为克服这一问题,在超亲水表面的边缘引入了对水具有低表面附着力的三角形图案。这种改性通过湿化学方法和掩膜氧等离子体处理实现,显著提高了集水效率。结果表明,在相对湿度为55%、温度差为15℃的条件下,与均匀超亲水表面相比,这种复合表面使第一个水滴滑落的时间减半,集水效率提高了78%;与均匀超疏水表面相比,集水效率提高了536%。通过计算模拟阐明了其基本原理,并解释了提高收集效率的驱动机制。

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