Superamphiphobic coatings with polymer-wrapped particles: enhancing water harvesting

In recent years, water harvesting in arid or semi-arid areas has gained increasing attention. Inspired by the fog harvesting ability of hydrophobic-hydrophilic surfaces associated with Namib desert beetles, considerable effort has been expended in creating such bionic surfaces. However, designing a...

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Veröffentlicht in:Journal of materials chemistry. A, Materials for energy and sustainability Materials for energy and sustainability, 2019-03, Vol.7 (1), p.5426-5433
Hauptverfasser: Wang, Xikui, Zeng, Jia, Yu, Xinquan, Zhang, Youfa
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container_title Journal of materials chemistry. A, Materials for energy and sustainability
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creator Wang, Xikui
Zeng, Jia
Yu, Xinquan
Zhang, Youfa
description In recent years, water harvesting in arid or semi-arid areas has gained increasing attention. Inspired by the fog harvesting ability of hydrophobic-hydrophilic surfaces associated with Namib desert beetles, considerable effort has been expended in creating such bionic surfaces. However, designing a surface with excellent water harvesting, superamphiphobic, and water/oil self-cleaning properties remains challenging. Herein, an innovative hybrid consisting of a superamphiphobic surface combined with hydrophilic/hydrophobic particles is fabricated by a facile method. This hybrid surface exhibits a praiseworthy drop nucleation effect, high removal efficiency, excellent water collection efficiency, and commendable water/oil self-cleaning performance. The surface's water/oil wettability, condensation properties, water collection rate and its dependence on the relative humidity and fog flow velocity were systematically investigated. The results obtained strongly indicated that the proposed hybrid superamphiphobic surface exhibits enhanced water drop condensation and water collection performance. In fact, the hybrid superamphiphobic surface doped with silicon carbide particles wrapped with an acrylic acid polymer emulsion (SiC@PAA) exhibited a better water harvesting effect, with a water collection rate more than double that of the nano-SiO 2 superamphiphobic surface. The findings of this work are considered instrumental to the further design and implementation of hybrid superamphiphobic surfaces for cost-efficient atmospheric water harvesting. Hybrid superamphiphobic coatings with polymer-wrapped SiC particles, which enhanced their water harvesting ability.
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The results obtained strongly indicated that the proposed hybrid superamphiphobic surface exhibits enhanced water drop condensation and water collection performance. In fact, the hybrid superamphiphobic surface doped with silicon carbide particles wrapped with an acrylic acid polymer emulsion (SiC@PAA) exhibited a better water harvesting effect, with a water collection rate more than double that of the nano-SiO 2 superamphiphobic surface. The findings of this work are considered instrumental to the further design and implementation of hybrid superamphiphobic surfaces for cost-efficient atmospheric water harvesting. 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source Royal Society Of Chemistry Journals 2008-
subjects Acrylic acid
Arid regions
Atmospheric water
Beetles
Bionics
Cleaning
Collection
Condensation
Dependence
Deserts
Flow velocity
Fog
Hydrophilicity
Hydrophobicity
Nucleation
Oil
Relative humidity
Semi arid areas
Silicon carbide
Silicon dioxide
Water drops
Water harvesting
Water treatment
Wettability
title Superamphiphobic coatings with polymer-wrapped particles: enhancing water harvesting
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