Rime ice growth characterized by surface acoustic wave

We propose a new theoretical method and experimental investigation to characterize the growth process of rime ice through surface acoustic waves (SAWs). The Biot theory of dual-phase porous media was employed to construct a theoretical model to describe the acoustic wave propagation in porous rime i...

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Autores principales: Yining Yin, Lina Cheng, Wen Wang, Yufeng Zhang, Yong Liang
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Lenguaje:EN
Publicado: AIP Publishing LLC 2021
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Acceso en línea:https://doaj.org/article/4b64cd4356c44a4a94033654fb4daad7
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spelling oai:doaj.org-article:4b64cd4356c44a4a94033654fb4daad72021-12-01T18:52:06ZRime ice growth characterized by surface acoustic wave2158-322610.1063/5.0069716https://doaj.org/article/4b64cd4356c44a4a94033654fb4daad72021-11-01T00:00:00Zhttp://dx.doi.org/10.1063/5.0069716https://doaj.org/toc/2158-3226We propose a new theoretical method and experimental investigation to characterize the growth process of rime ice through surface acoustic waves (SAWs). The Biot theory of dual-phase porous media was employed to construct a theoretical model to describe the acoustic wave propagation in porous rime ice; the transient changes in acoustic propagation attenuation and velocity were simulated; and the icing sensing mechanism of the acoustic wave propagation attenuation (∼18 dB) and the transient change in velocity (0.8 m/s) during the icing process was obtained. A 177.5 MHz waveguide type SAW micro–nano-device with an SU8/ST-90°X quartz multilayer composite film structure and a microfluidic cavity on the top of the acoustic device were designed and fabricated, and the transient attenuation in the growth of rime ice was evaluated experimentally. The experimental results indicated that the appearance of rime ice can be monitored accurately by utilizing the transient changes in acoustic wave velocity and attenuation. Therefore, the acoustic method can aid in the early warning of the development status of rime ice.Yining YinLina ChengWen WangYufeng ZhangYong LiangAIP Publishing LLCarticlePhysicsQC1-999ENAIP Advances, Vol 11, Iss 11, Pp 115028-115028-7 (2021)
institution DOAJ
collection DOAJ
language EN
topic Physics
QC1-999
spellingShingle Physics
QC1-999
Yining Yin
Lina Cheng
Wen Wang
Yufeng Zhang
Yong Liang
Rime ice growth characterized by surface acoustic wave
description We propose a new theoretical method and experimental investigation to characterize the growth process of rime ice through surface acoustic waves (SAWs). The Biot theory of dual-phase porous media was employed to construct a theoretical model to describe the acoustic wave propagation in porous rime ice; the transient changes in acoustic propagation attenuation and velocity were simulated; and the icing sensing mechanism of the acoustic wave propagation attenuation (∼18 dB) and the transient change in velocity (0.8 m/s) during the icing process was obtained. A 177.5 MHz waveguide type SAW micro–nano-device with an SU8/ST-90°X quartz multilayer composite film structure and a microfluidic cavity on the top of the acoustic device were designed and fabricated, and the transient attenuation in the growth of rime ice was evaluated experimentally. The experimental results indicated that the appearance of rime ice can be monitored accurately by utilizing the transient changes in acoustic wave velocity and attenuation. Therefore, the acoustic method can aid in the early warning of the development status of rime ice.
format article
author Yining Yin
Lina Cheng
Wen Wang
Yufeng Zhang
Yong Liang
author_facet Yining Yin
Lina Cheng
Wen Wang
Yufeng Zhang
Yong Liang
author_sort Yining Yin
title Rime ice growth characterized by surface acoustic wave
title_short Rime ice growth characterized by surface acoustic wave
title_full Rime ice growth characterized by surface acoustic wave
title_fullStr Rime ice growth characterized by surface acoustic wave
title_full_unstemmed Rime ice growth characterized by surface acoustic wave
title_sort rime ice growth characterized by surface acoustic wave
publisher AIP Publishing LLC
publishDate 2021
url https://doaj.org/article/4b64cd4356c44a4a94033654fb4daad7
work_keys_str_mv AT yiningyin rimeicegrowthcharacterizedbysurfaceacousticwave
AT linacheng rimeicegrowthcharacterizedbysurfaceacousticwave
AT wenwang rimeicegrowthcharacterizedbysurfaceacousticwave
AT yufengzhang rimeicegrowthcharacterizedbysurfaceacousticwave
AT yongliang rimeicegrowthcharacterizedbysurfaceacousticwave
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