Reduction of Ice Adhesion Using Surface Acoustic Waves: Nanoscale Vibration and Interface Heating Effects

Zeng, XingChang, Yan, ZeXiang, Lu, YuChao, Fu, Yongqing (Richard), Lv, XiangLian, Yuan, WeiZheng and He, Yang (2021) Reduction of Ice Adhesion Using Surface Acoustic Waves: Nanoscale Vibration and Interface Heating Effects. Langmuir, 37 (40). pp. 11851-11858. ISSN 0743-7463

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Official URL: https://doi.org/10.1021/acs.langmuir.1c01852

Abstract

Ice accumulation causes great risks to aircraft, electric power lines, and wind-turbine blades. For the ice accumulation on structural surfaces, ice adhesion force is a crucial factor, which generally has two main sources, for exampple, electrostatic force and mechanical interlocking. Herein, we present that surface acoustic waves (SAWs) can be applied to minimize ice adhesion by simultaneously reducing electrostatic force and mechanical interlocking, and generating interface heating effect. A theoretical model of ice adhesion considering the effect of SAWs is first established. Experimental studies proved that the combination of nanoscale vibration and interface heating effects lead to the reduction of ice adhesion on the substrate. With the increase of SAW power, the electrostatic force decreases due to the increase of dipole spacings, which is mainly attributed to the SAW induced nanoscale surface vibration. The interface heating effect leads to the transition of the locally interfacial contact phase from solid–solid to solid–liquid, hence reducing the mechanical interlocking of ice. This study presents a strategy of using SAWs device for ice adhesion reduction, and results show a considerable potential for application in deicing.

Item Type: Article
Additional Information: Funding information: Engineering and Physical Sciences Research Council (EP/S036180/1EP/N032861/1EP/P018998/1EP/S023836/1) Royal Society National Natural Science Foundation of China (521115301275173501151875478) International Exchange Grant (201078)
Uncontrolled Keywords: Electrochemistry, Spectroscopy, Surfaces and Interfaces, Condensed Matter Physics, General Materials Science
Subjects: H800 Chemical, Process and Energy Engineering
Department: Faculties > Engineering and Environment > Mathematics, Physics and Electrical Engineering
Depositing User: Rachel Branson
Date Deposited: 08 Oct 2021 11:36
Last Modified: 20 Oct 2021 13:45
URI: http://nrl.northumbria.ac.uk/id/eprint/47447

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