Flexible control of an ultrastable levitated orbital micro-gyroscope through orbital-translational coupling

Introducing rotational degree of control into conventional optical tweezers promises unprecedented possibilities in physics, optical manipulation, and life science. However, previous rotational schemes have largely relied upon the intrinsic properties of microsphere anisotropy—such as birefringence...

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Main Authors: Li Wenqiang, Wang Xia, Liu Jiaming, Li Shuai, Li Nan, Hu Huizhu
Format: Article
Language:English
Published: De Gruyter 2023-02-01
Series:Nanophotonics
Subjects:
Online Access:https://doi.org/10.1515/nanoph-2022-0625
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author Li Wenqiang
Wang Xia
Liu Jiaming
Li Shuai
Li Nan
Hu Huizhu
author_facet Li Wenqiang
Wang Xia
Liu Jiaming
Li Shuai
Li Nan
Hu Huizhu
author_sort Li Wenqiang
collection DOAJ
description Introducing rotational degree of control into conventional optical tweezers promises unprecedented possibilities in physics, optical manipulation, and life science. However, previous rotational schemes have largely relied upon the intrinsic properties of microsphere anisotropy—such as birefringence or amorphous shape—which involves sophisticated fabrication processes and is limited in their application range. In this study, we demonstrated the first experimental realization of orbiting a homogeneous microsphere by exploiting angular momentum in a transversely rotating optical trap. The high level of rotational control allows us to explore orbital-translational coupling and realize an ultra-stable micro-gyroscope of considerable value. The dynamics of orbital levitated particle was theoretically characterized using a simple model. Our proposed method provided a novel way to qualitatively characterize optical trap features. In the future, the approach could pave the way for investigating rotational opto-mechanics, rotational ground state cooling, and the study of ultra-sensitive angular measurement.
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spelling doaj.art-4e880d40984444c69a1e07abf6fa4bbe2023-04-11T17:07:18ZengDe GruyterNanophotonics2192-86142023-02-011271245125310.1515/nanoph-2022-0625Flexible control of an ultrastable levitated orbital micro-gyroscope through orbital-translational couplingLi Wenqiang0Wang Xia1Liu Jiaming2Li Shuai3Li Nan4Hu Huizhu5College of Optical Science and Engineering, Zhejiang University, Hangzhou310027, ChinaCollege of Optical Science and Engineering, Zhejiang University, Hangzhou310027, ChinaCollege of Optical Science and Engineering, Zhejiang University, Hangzhou310027, ChinaQuantum Sensing Center, Zhejiang Lab, Hangzhou310000, ChinaCollege of Optical Science and Engineering, Zhejiang University, Hangzhou310027, ChinaQuantum Sensing Center, Zhejiang Lab, Hangzhou310000, ChinaIntroducing rotational degree of control into conventional optical tweezers promises unprecedented possibilities in physics, optical manipulation, and life science. However, previous rotational schemes have largely relied upon the intrinsic properties of microsphere anisotropy—such as birefringence or amorphous shape—which involves sophisticated fabrication processes and is limited in their application range. In this study, we demonstrated the first experimental realization of orbiting a homogeneous microsphere by exploiting angular momentum in a transversely rotating optical trap. The high level of rotational control allows us to explore orbital-translational coupling and realize an ultra-stable micro-gyroscope of considerable value. The dynamics of orbital levitated particle was theoretically characterized using a simple model. Our proposed method provided a novel way to qualitatively characterize optical trap features. In the future, the approach could pave the way for investigating rotational opto-mechanics, rotational ground state cooling, and the study of ultra-sensitive angular measurement.https://doi.org/10.1515/nanoph-2022-0625laser trappingoptical manipulationoptical tweezers
spellingShingle Li Wenqiang
Wang Xia
Liu Jiaming
Li Shuai
Li Nan
Hu Huizhu
Flexible control of an ultrastable levitated orbital micro-gyroscope through orbital-translational coupling
Nanophotonics
laser trapping
optical manipulation
optical tweezers
title Flexible control of an ultrastable levitated orbital micro-gyroscope through orbital-translational coupling
title_full Flexible control of an ultrastable levitated orbital micro-gyroscope through orbital-translational coupling
title_fullStr Flexible control of an ultrastable levitated orbital micro-gyroscope through orbital-translational coupling
title_full_unstemmed Flexible control of an ultrastable levitated orbital micro-gyroscope through orbital-translational coupling
title_short Flexible control of an ultrastable levitated orbital micro-gyroscope through orbital-translational coupling
title_sort flexible control of an ultrastable levitated orbital micro gyroscope through orbital translational coupling
topic laser trapping
optical manipulation
optical tweezers
url https://doi.org/10.1515/nanoph-2022-0625
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AT liujiaming flexiblecontrolofanultrastablelevitatedorbitalmicrogyroscopethroughorbitaltranslationalcoupling
AT lishuai flexiblecontrolofanultrastablelevitatedorbitalmicrogyroscopethroughorbitaltranslationalcoupling
AT linan flexiblecontrolofanultrastablelevitatedorbitalmicrogyroscopethroughorbitaltranslationalcoupling
AT huhuizhu flexiblecontrolofanultrastablelevitatedorbitalmicrogyroscopethroughorbitaltranslationalcoupling