Self-stabilizing three-dimensional particle manipulation via a single-transducer acoustic tweezer
This paper investigates the mechanism of self-stabilizing, three-dimensional Mie particle manipulation in water via an acoustic tweezer with a single transducer. A carefully designed acoustic lens is attached to the transducer to form an acoustic vortex, which provides angular momentum on the trappe...
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sg-ntu-dr.10356-1655902023-04-08T16:48:11Z Self-stabilizing three-dimensional particle manipulation via a single-transducer acoustic tweezer Shen, Lu Tai, Junfei Crivoi, Alexandru Li, Junfei Cummer, Steven Fan, Zheng School of Mechanical and Aerospace Engineering Engineering::Mechanical engineering Acoustic Tweezers Equilibrium Positions This paper investigates the mechanism of self-stabilizing, three-dimensional Mie particle manipulation in water via an acoustic tweezer with a single transducer. A carefully designed acoustic lens is attached to the transducer to form an acoustic vortex, which provides angular momentum on the trapped polymer sphere and leads to a fast-spinning motion. The sphere can find equilibrium positions spontaneously during the manipulation by slightly adjusting its relative position, angular velocity, and spinning axis. The spinning motion greatly enhances the low-pressure recirculation region around the sphere, resulting in a larger pressure induced drag. Simultaneously, the Magnus effect is induced to generate an additional lateral force. The spinning motion of the trapped sphere links the acoustic radiation force and hydrodynamic forces together, so that the sphere can spontaneously achieve new force balance and follow the translational motion of the acoustic tweezer. Non-spherical objects can also be manipulated by this acoustic tweezer. Agency for Science, Technology and Research (A*STAR) Published version The authors would like to acknowledge the financial support from A*STAR Science and Engineering Research Council under AME Individual Research Grant (IRG) 2018 Grant Call (Project No. A1983c0030), the National Natural Science Foundation of China (Grant No. 12102112), and a CMMI grant from the U.S. National Science Foundation (Grant No. 1951106). 2023-04-03T03:02:25Z 2023-04-03T03:02:25Z 2023 Journal Article Shen, L., Tai, J., Crivoi, A., Li, J., Cummer, S. & Fan, Z. (2023). Self-stabilizing three-dimensional particle manipulation via a single-transducer acoustic tweezer. Applied Physics Letters, 122(9), 094106-. https://dx.doi.org/10.1063/5.0138406 0003-6951 https://hdl.handle.net/10356/165590 10.1063/5.0138406 2-s2.0-85149693199 9 122 094106 en A1983c0030 Applied Physics Letters © 2023 Author(s). All rights reserved. This article may be downloaded for personal use only. Any other use requires prior permission of the author and AIP Publishing. This article appeared in Shen, L., Tai, J., Crivoi, A., Li, J., Cummer, S. & Fan, Z. (2023). Self-stabilizing three-dimensional particle manipulation via a single-transducer acoustic tweezer. Applied Physics Letters, 122(9), 094106- and may be found at https://dx.doi.org/10.1063/5.0138406. application/pdf |
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Engineering::Mechanical engineering Acoustic Tweezers Equilibrium Positions Shen, Lu Tai, Junfei Crivoi, Alexandru Li, Junfei Cummer, Steven Fan, Zheng Self-stabilizing three-dimensional particle manipulation via a single-transducer acoustic tweezer |
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This paper investigates the mechanism of self-stabilizing, three-dimensional Mie particle manipulation in water via an acoustic tweezer with a single transducer. A carefully designed acoustic lens is attached to the transducer to form an acoustic vortex, which provides angular momentum on the trapped polymer sphere and leads to a fast-spinning motion. The sphere can find equilibrium positions spontaneously during the manipulation by slightly adjusting its relative position, angular velocity, and spinning axis. The spinning motion greatly enhances the low-pressure recirculation region around the sphere, resulting in a larger pressure induced drag. Simultaneously, the Magnus effect is induced to generate an additional lateral force. The spinning motion of the trapped sphere links the acoustic radiation force and hydrodynamic forces together, so that the sphere can spontaneously achieve new force balance and follow the translational motion of the acoustic tweezer. Non-spherical objects can also be manipulated by this acoustic tweezer. |
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School of Mechanical and Aerospace Engineering |
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School of Mechanical and Aerospace Engineering Shen, Lu Tai, Junfei Crivoi, Alexandru Li, Junfei Cummer, Steven Fan, Zheng |
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Article |
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Shen, Lu Tai, Junfei Crivoi, Alexandru Li, Junfei Cummer, Steven Fan, Zheng |
author_sort |
Shen, Lu |
title |
Self-stabilizing three-dimensional particle manipulation via a single-transducer acoustic tweezer |
title_short |
Self-stabilizing three-dimensional particle manipulation via a single-transducer acoustic tweezer |
title_full |
Self-stabilizing three-dimensional particle manipulation via a single-transducer acoustic tweezer |
title_fullStr |
Self-stabilizing three-dimensional particle manipulation via a single-transducer acoustic tweezer |
title_full_unstemmed |
Self-stabilizing three-dimensional particle manipulation via a single-transducer acoustic tweezer |
title_sort |
self-stabilizing three-dimensional particle manipulation via a single-transducer acoustic tweezer |
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2023 |
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https://hdl.handle.net/10356/165590 |
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1764208030685069312 |