Uncertainty-induced instantaneous speed and acceleration of a levitated particle

Abstract Levitating nanoparticles trapped in optical potentials at low pressure open the experimental investigation of nonlinear ballistic phenomena. With engineered non-linear potentials and fast optical detection, the observation of autonomous transient mechanical effects, such as instantaneous sp...

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Main Authors: Luca Ornigotti, Radim Filip
Format: Article
Language:English
Published: Nature Publishing Group 2021-09-01
Series:Scientific Reports
Online Access:https://doi.org/10.1038/s41598-021-97663-z
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spelling doaj-40eeaab329fc4865904a65b91713aae12021-09-19T11:31:55ZengNature Publishing GroupScientific Reports2045-23222021-09-0111111310.1038/s41598-021-97663-zUncertainty-induced instantaneous speed and acceleration of a levitated particleLuca Ornigotti0Radim Filip1Department of Optics, Palacký UniversityDepartment of Optics, Palacký UniversityAbstract Levitating nanoparticles trapped in optical potentials at low pressure open the experimental investigation of nonlinear ballistic phenomena. With engineered non-linear potentials and fast optical detection, the observation of autonomous transient mechanical effects, such as instantaneous speed and acceleration stimulated purely by initial position uncertainty, are now achievable. By using parameters of current low pressure experiments, we simulate and analyse such uncertainty-induced particle ballistics in a cubic optical potential demonstrating their evolution, faster than their standard deviations, justifying the feasibility of the experimental verification. We predict, the maxima of instantaneous speed and acceleration distributions shift alongside the potential force, while the maximum of position distribution moves opposite to it. We report that cryogenic cooling is not necessary in order to observe the transient effects, while a low uncertainty in initial particle speed is required, via cooling or post-selection, to not mask the effects. These results stimulate the discussion for both attractive stochastic thermodynamics, and extension of recently explored quantum regime.https://doi.org/10.1038/s41598-021-97663-z
collection DOAJ
language English
format Article
sources DOAJ
author Luca Ornigotti
Radim Filip
spellingShingle Luca Ornigotti
Radim Filip
Uncertainty-induced instantaneous speed and acceleration of a levitated particle
Scientific Reports
author_facet Luca Ornigotti
Radim Filip
author_sort Luca Ornigotti
title Uncertainty-induced instantaneous speed and acceleration of a levitated particle
title_short Uncertainty-induced instantaneous speed and acceleration of a levitated particle
title_full Uncertainty-induced instantaneous speed and acceleration of a levitated particle
title_fullStr Uncertainty-induced instantaneous speed and acceleration of a levitated particle
title_full_unstemmed Uncertainty-induced instantaneous speed and acceleration of a levitated particle
title_sort uncertainty-induced instantaneous speed and acceleration of a levitated particle
publisher Nature Publishing Group
series Scientific Reports
issn 2045-2322
publishDate 2021-09-01
description Abstract Levitating nanoparticles trapped in optical potentials at low pressure open the experimental investigation of nonlinear ballistic phenomena. With engineered non-linear potentials and fast optical detection, the observation of autonomous transient mechanical effects, such as instantaneous speed and acceleration stimulated purely by initial position uncertainty, are now achievable. By using parameters of current low pressure experiments, we simulate and analyse such uncertainty-induced particle ballistics in a cubic optical potential demonstrating their evolution, faster than their standard deviations, justifying the feasibility of the experimental verification. We predict, the maxima of instantaneous speed and acceleration distributions shift alongside the potential force, while the maximum of position distribution moves opposite to it. We report that cryogenic cooling is not necessary in order to observe the transient effects, while a low uncertainty in initial particle speed is required, via cooling or post-selection, to not mask the effects. These results stimulate the discussion for both attractive stochastic thermodynamics, and extension of recently explored quantum regime.
url https://doi.org/10.1038/s41598-021-97663-z
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