制作疏水性光热相变微胶囊,用于高效防冰/除冰

IF 6.7 2区 化学 Q1 CHEMISTRY, MULTIDISCIPLINARY
Mingtai Hou, Zeyi Jiang, Xinru Zhang, Wen Sun, Fuqiang Chu, Nien-Chu Lai
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引用次数: 0

摘要

光热疏水涂层被认为是一种前景广阔的被动防/除冰策略,但其昂贵的制造工艺阻碍了其大规模商业应用。在此,我们采用简便的方法构建了一种双壳 n-Eicosane@TiO@CuS 相变微胶囊。该微胶囊的潜热为 127.8 J/g,在 200 次 DSC 循环中相变温度和焓的波动可以忽略不计。由于花状上层结构和 CuS 外壳局部表面等离子体共振效应的耦合效应,微胶囊在整个太阳光谱中都表现出很强的吸收能力。由于微胶囊具有较大的表面粗糙度和超疏水特性,因此会自发形成液体大理石。基于微胶囊的涂层表面在低温条件下具有高效的防冰/除冰性能。我们的工作不仅为高性能微胶囊的设计提供了一种新方法,还为光热防冰/除冰应用提供了一种有效策略。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Fabrication of hydrophobic photothermal phase change microcapsules for efficient anti-/deicing
Photothermal hydrophobic coatings are considered as a promising passive anti-/deicing strategy, but their expensive manufacturing process has hindered their large-scale commercial application. Herein, we have constructed a double-shell n-Eicosane@TiO@CuS phase change microcapsules in a facile approach. The microcapsule exhibits latent heat of 127.8 J/g, and the fluctuation of phase transition temperature and enthalpy in 200 DSC cycles is negligible. The microcapsule shows a strong absorption in the whole solar spectrum, owing to the coupling effect of the flower-like superstructure and localized surface plasmon resonance effect of CuS shell. Liquid marbles are spontaneously formed owing to the large surface roughness and superhydrophobic character of the microcapsule. The microcapsule-based coating surface reveals efficient anti-/deicing performance under low-temperature condition. Our work not only provides a novel approach for the design of high-performance microcapsules but also offers an effective strategy for photothermal anti-/deicing applications.
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来源期刊
CiteScore
8.90
自引率
6.80%
发文量
596
审稿时长
33 days
期刊介绍: Materials Today Chemistry is a multi-disciplinary journal dedicated to all facets of materials chemistry. This field represents one of the fastest-growing areas of science, involving the application of chemistry-based techniques to the study of materials. It encompasses materials synthesis and behavior, as well as the intricate relationships between material structure and properties at the atomic and molecular scale. Materials Today Chemistry serves as a high-impact platform for discussing research that propels the field forward through groundbreaking discoveries and innovative techniques.
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