Fabrication of anti-icing/de-icing superhydrophobic composite coating based on hydrangea-like ZnO@CuS

材料科学 结冰 复合数 涂层 复合材料 聚二甲基硅氧烷 接触角 制作 超疏水涂料 图层(电子) 磨损(机械) 气象学 医学 物理 病理 替代医学
作者
Yan Bao,Hong Yang,Lu Gao,Xi Zheng,Xiujuan Shi,Wenbo Zhang,Chao Liu
出处
期刊:Solar Energy Materials and Solar Cells [Elsevier]
卷期号:245: 111838-111838 被引量:44
标识
DOI:10.1016/j.solmat.2022.111838
摘要

Considering the destructive effect of ice accumulation on material surfaces, substantial attention has been devoted to fabricating anti-icing superhydrophobic coatings. However, most superhydrophobic coatings cannot deice. Herein, a special nanofiller was designed and fabricated as the main component of a superhydrophobic coating for simultaneously improving its anti-icing and de-icing performance. Firstly, hydrangea-like [email protected] (H–[email protected]) was synthesized via a precipitation process at room temperature. Then, a superhydrophobic composite coating composed of epoxy resin (ER), H–[email protected], and polydimethylsiloxane (PDMS) was fabricated on the Al surface via a layer-by-layer spraying process. The results demonstrate that, after 100 tape peeling tests and 40 abrasion cycles, the hydrophobicity of the ER/H–[email protected]/PDMS composite coating remains basically unchanged, and its water contact angle (WCA) can still reach 156.3°, thus exhibiting excellent superhydrophobicity and mechanical durability. More importantly, the composite coating displays outstanding anti-icing and de-icing performance, which can prolong the static freezing time of water droplets from 3 to 13 min at −15 °C and prevent the formation of ice when water is dripped continuously for 20 min at −10 °C. Additionally, the melting time of ice at −15 °C can be shortened from 5 to 1 min due to the photothermal behavior of H–[email protected] Therefore, this work presents a promising strategy to endow coatings with simultaneous anti-icing and de-icing performance. This approach can not only improve the current efficiency of de-icing/anti-icing processes but also reduce the energy consumption by effectively reducing or eliminating the accumulation of water on the structure surface before it freezes.
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