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引用次数: 0
摘要
具有更好的润湿性和几何结构的固体表面可以增强雾滴的捕捉和去除能力,从而改善雾收集效果。我们通过将超亲水(SHL)、超疏水(SHB)和油浸SHB(SHBO)表面组合成可测量雾收集效率的图案来制造铝丝。SHL-SHBO-SHL图案在固体表面上的水滴捕获和流动效率最高,达到42%,而Bare图案的效率仅为34%。为了确定最佳效率特征,引入了两个边界条件(边界 I:从 SHL 到 SHBO;边界 II:从 SHBO 到 SHL),并考察了亲水区域的影响。边界 I 提高了捕获效率,而边界 II 则提高了排水效率。了解润湿性梯度表面的作用力以及通过润湿性组合纳入 SHL 和 SHBO 的面积比,是设计有效雾气捕集系统的关键。
Multifunctional integrated pattern for enhancing fog harvesting water unidirectional transport in a heterogeneous pattern
Solid surfaces with improved wettability as well as geometric structures can enhance capture and droplet removal, thereby improving fog harvesting. We fabricated Al wires by combining superhydrophilic (SHL), superhydrophobic (SHB), and oil-infused SHB (SHBO) surfaces into a pattern whose fog-harvesting efficiency could be measured. The SHL-SHBO-SHL pattern showed the highest promise of water droplet capture and mobility on a solid surface with 42% efficiency compared to the 34% efficiency of Bare. In order to identify the optimal efficiency features, two boundary conditions (boundary I: from SHL to SHBO and boundary II: from SHBO to SHL) were introduced, and the impact of the hydrophilic area was examined. Boundary I boosts capture efficiency whereas boundary II increases drain efficiency. Understanding the forces operating at the wettability gradient surface, as well as incorporating the area ratio of SHL and SHBO via wettability combinations, are key to designing effective fog harvesting systems.
npj Clean WaterEnvironmental Science-Water Science and Technology
CiteScore
15.30
自引率
2.60%
发文量
61
审稿时长
5 weeks
期刊介绍:
npj Clean Water publishes high-quality papers that report cutting-edge science, technology, applications, policies, and societal issues contributing to a more sustainable supply of clean water. The journal's publications may also support and accelerate the achievement of Sustainable Development Goal 6, which focuses on clean water and sanitation.