Nonthermalizing dynamics of interacting Rydberg atoms
POSTER
Abstract
An isolated system of ultracold Rydberg atoms can come to equilibrium by exchanging energy through dipole-dipole interactions. In our experiment, a static electric field of a few V/cm shifts the energy levels of the atoms, so that the energy levels are nearly degenerate at zero field and fan out with increasing field to form a manifold. We excite atoms to energy levels near the center of the manifold, where the spacing is nearly harmonic. We allow them to interact for a few microseconds, by which time the popoulation of each energy level has reached a steady state. The population is then measured at various densities and compared to simulation results. We use the notion of dynamical typicality to predict the equillibrium configuration and show that the system fails to thermalize.
Presenters
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Nick A Chlanda
Ursinus College
Authors
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Nick A Chlanda
Ursinus College
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Sage M Thomas
Bryn Mawr College
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Maja Teofilovska
Bryn Mawr College
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Annick C van Blerkom
Bryn Mawr College
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Sarah E Spielman
Bryn Mawr College
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Karleigh M Bath
Bryn Mawr College
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Juniper J Bauroth-Sherman
Ursinus College
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Hannah S Conley
Ursinus College
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Philip A Conte
Ursinus College
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Aidan D Kirk
Ursinus College
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Thomas J Carroll
Ursinus College
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Michael W Noel
Bryn Mawr College