Non-diffractive acoustic beams produce negative radiation force in certain regions

A method of particle manipulation, one based on the force of acoustic radiation, has drawn wide attention. However, the real concept behind “acoustic tweezers”—negative acoustic radiation force (ARF)—has not been realized in experiments. In this paper, a prediction of a negative ARF generated by the...

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Veröffentlicht in:AIP advances 2021-06, Vol.11 (6), p.065029-065029-9
Hauptverfasser: Gong, Menyang, Qiao, Yupei, Fei, Zhonghan, Li, Yuanyuan, Liu, Jiehui, Mao, Yiwei, He, Aijun, Liu, Xiaozhou
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container_end_page 065029-9
container_issue 6
container_start_page 065029
container_title AIP advances
container_volume 11
creator Gong, Menyang
Qiao, Yupei
Fei, Zhonghan
Li, Yuanyuan
Liu, Jiehui
Mao, Yiwei
He, Aijun
Liu, Xiaozhou
description A method of particle manipulation, one based on the force of acoustic radiation, has drawn wide attention. However, the real concept behind “acoustic tweezers”—negative acoustic radiation force (ARF)—has not been realized in experiments. In this paper, a prediction of a negative ARF generated by the non-diffractive acoustic beam is proposed. Its underlying physical mechanism is also analyzed in detail. On the basis of an analysis of energy flux density, the analytical region of negative radiation produced by the non-diffractive beam is solved completely. Forecast methods based on this solution are proposed that lay the foundation for realizing acoustic tweezers and offer the possibility of designing devices that produce negative ARFs. In addition, the negative propagation of acoustic beams in normal materials is realized, raising a possible alternative means to accomplish acoustic beam control.
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subjects Acoustic propagation
Acoustics
Flux density
Particle beams
Radiation
Sound waves
title Non-diffractive acoustic beams produce negative radiation force in certain regions
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