Can a periodically driven particle resist laser cooling and noise?

Studying a single atomic ion confined in a time-dependent periodic anharmonic potential, we find large amplitude trajectories stable for millions of oscillation periods in the presence of stochastic laser cooling. Accounting for the complexity of the laser cooling process we calculate the details of...

Full description

Bibliographic Details
Main Authors: A. Maitra, D. Leibfried, D. Ullmo, H. Landa
Format: Article
Language:English
Published: American Physical Society 2019-08-01
Series:Physical Review Research
Online Access:http://doi.org/10.1103/PhysRevResearch.1.012012
_version_ 1797211657782427648
author A. Maitra
D. Leibfried
D. Ullmo
H. Landa
author_facet A. Maitra
D. Leibfried
D. Ullmo
H. Landa
author_sort A. Maitra
collection DOAJ
description Studying a single atomic ion confined in a time-dependent periodic anharmonic potential, we find large amplitude trajectories stable for millions of oscillation periods in the presence of stochastic laser cooling. Accounting for the complexity of the laser cooling process we calculate the details of the effective dynamics away from thermal equilibrium. The competition between energy gain from the time-dependent drive and damping leads to the stabilization of such stochastic limit cycles. Instead of converging to the global minimum of the averaged potential, the steady-state phase-space distribution develops multiple peaks in the regions of phase space where the frequency of the motion is close to a multiple of the periodic drive. Such distinct nonequilibrium behavior can be observed in realistic radio-frequency traps with laser-cooled ions, suggesting that Paul traps offer a well-controlled test bed for studying the transport and dynamics of microscopically driven systems.
first_indexed 2024-04-24T10:29:59Z
format Article
id doaj.art-2d3e64c2bbd141bdb793f61f88859c04
institution Directory Open Access Journal
issn 2643-1564
language English
last_indexed 2024-04-24T10:29:59Z
publishDate 2019-08-01
publisher American Physical Society
record_format Article
series Physical Review Research
spelling doaj.art-2d3e64c2bbd141bdb793f61f88859c042024-04-12T16:45:25ZengAmerican Physical SocietyPhysical Review Research2643-15642019-08-011101201210.1103/PhysRevResearch.1.012012Can a periodically driven particle resist laser cooling and noise?A. MaitraD. LeibfriedD. UllmoH. LandaStudying a single atomic ion confined in a time-dependent periodic anharmonic potential, we find large amplitude trajectories stable for millions of oscillation periods in the presence of stochastic laser cooling. Accounting for the complexity of the laser cooling process we calculate the details of the effective dynamics away from thermal equilibrium. The competition between energy gain from the time-dependent drive and damping leads to the stabilization of such stochastic limit cycles. Instead of converging to the global minimum of the averaged potential, the steady-state phase-space distribution develops multiple peaks in the regions of phase space where the frequency of the motion is close to a multiple of the periodic drive. Such distinct nonequilibrium behavior can be observed in realistic radio-frequency traps with laser-cooled ions, suggesting that Paul traps offer a well-controlled test bed for studying the transport and dynamics of microscopically driven systems.http://doi.org/10.1103/PhysRevResearch.1.012012
spellingShingle A. Maitra
D. Leibfried
D. Ullmo
H. Landa
Can a periodically driven particle resist laser cooling and noise?
Physical Review Research
title Can a periodically driven particle resist laser cooling and noise?
title_full Can a periodically driven particle resist laser cooling and noise?
title_fullStr Can a periodically driven particle resist laser cooling and noise?
title_full_unstemmed Can a periodically driven particle resist laser cooling and noise?
title_short Can a periodically driven particle resist laser cooling and noise?
title_sort can a periodically driven particle resist laser cooling and noise
url http://doi.org/10.1103/PhysRevResearch.1.012012
work_keys_str_mv AT amaitra canaperiodicallydrivenparticleresistlasercoolingandnoise
AT dleibfried canaperiodicallydrivenparticleresistlasercoolingandnoise
AT dullmo canaperiodicallydrivenparticleresistlasercoolingandnoise
AT hlanda canaperiodicallydrivenparticleresistlasercoolingandnoise