Enhancing water transportation capacity by asymmetrical patterned surface with super-wettability

Spontaneous and directional water droplet transportation based on patterned surface with super-wettability is crucial for the development of frontier science technology. However, water droplet transportation cannot meet both long distance and fast transportation simultaneously. Here, we overcame this limitation by proposing an asymmetric serial brachistochrone-shaped pattern (ASBP). Water droplet could be transported on the ASBP with a transportation distance of 72.52 mm and a transportation velocity of 158 mm/s after a series of single-factor experiments, orthogonal design optimization, and junction transition optimization. In addition, the water droplet could be transported on a curved ASBP, a super-long ASBP for multi-droplet scenarios, and an ASBP at an inclination angle. Moreover, acidic and alkaline aqueous solution droplet showed similar transportation distance and transportation velocity on the ASBP. Based on the aforementioned superb water transportation capacity, this ASBP can be applied in the fields of fog collection, solution mixing and reaction, and reagent detection. This work has strong implications for promoting the application of patterned surface with super-wettability in the field of high-performance fluid transportation systems.

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Publication Details

Journal
Applied Physics Letters
Published
2024-08-12
DOI
https://doi.org/10.1063/5.0223731
Citations
61
Primary Topic
Surface Modification and Superhydrophobicity
Type
article
Field-Weighted Citation Impact
10.89

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article

Enhancing water transportation capacity by asymmetrical patterned surface with super-wettability

Defeng Yan, Wenhui Li, Jinlong Song, Junyi Lin et al.
61 citations
Applied Physics Letters
Surface Modification and Superhydrophobicity
10.89
article

Enhancing water transportation capacity by asymmetrical patterned surface with super-wettability

Defeng Yan, Wenhui Li, Jinlong Song, Junyi Lin, Yi Lu
article en
61 citations

Abstract

Spontaneous and directional water droplet transportation based on patterned surface with super-wettability is crucial for the development of frontier science technology. However, water droplet transportation cannot meet both long distance and fast transportation simultaneously. Here, we overcame this limitation by proposing an asymmetric serial brachistochrone-shaped pattern (ASBP). Water droplet could be transported on the ASBP with a transportation distance of 72.52 mm and a transportation velocity of 158 mm/s after a series of single-factor experiments, orthogonal design optimization, and junction transition optimization. In addition, the water droplet could be transported on a curved ASBP, a super-long ASBP for multi-droplet scenarios, and an ASBP at an inclination angle. Moreover, acidic and alkaline aqueous solution droplet showed similar transportation distance and transportation velocity on the ASBP. Based on the aforementioned superb water transportation capacity, this ASBP can be applied in the fields of fog collection, solution mixing and reaction, and reagent detection. This work has strong implications for promoting the application of patterned surface with super-wettability in the field of high-performance fluid transportation systems.

Applied Physics LettersVol. 125(7)
Dalian University of Technology (CN)
National Natural Science Foundation of China, Aviation Science Fund
Clean water and sanitation
Openalex Percentile: Top 1%
Surface Modification and Superhydrophobicity
10.89
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