Entangling strings of neutral atoms in 1D atomic pipeline structures.

We study a string of neutral atoms with nearest neighbor interaction in a 1D beam splitter configuration, where the longitudinal motion is controlled by a moving optical lattice potential. The dynamics of the atoms crossing the beam splitter maps to a 1D spin model with controllable time dependent p...

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Main Authors: Dorner, U, Fedichev, P, Jaksch, D, Lewenstein, M, Zoller, P
Format: Journal article
Language:English
Published: 2003
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author Dorner, U
Fedichev, P
Jaksch, D
Lewenstein, M
Zoller, P
author_facet Dorner, U
Fedichev, P
Jaksch, D
Lewenstein, M
Zoller, P
author_sort Dorner, U
collection OXFORD
description We study a string of neutral atoms with nearest neighbor interaction in a 1D beam splitter configuration, where the longitudinal motion is controlled by a moving optical lattice potential. The dynamics of the atoms crossing the beam splitter maps to a 1D spin model with controllable time dependent parameters, which allows the creation of maximally entangled states of atoms by crossing a quantum phase transition. Furthermore, we show that this system realizes protected quantum memory, and we discuss the implementation of one- and two-qubit gates in this setup.
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spelling oxford-uuid:aa7a8687-8914-4217-af95-6c62f340295b2022-03-27T03:15:23ZEntangling strings of neutral atoms in 1D atomic pipeline structures.Journal articlehttp://purl.org/coar/resource_type/c_dcae04bcuuid:aa7a8687-8914-4217-af95-6c62f340295bEnglishSymplectic Elements at Oxford2003Dorner, UFedichev, PJaksch, DLewenstein, MZoller, PWe study a string of neutral atoms with nearest neighbor interaction in a 1D beam splitter configuration, where the longitudinal motion is controlled by a moving optical lattice potential. The dynamics of the atoms crossing the beam splitter maps to a 1D spin model with controllable time dependent parameters, which allows the creation of maximally entangled states of atoms by crossing a quantum phase transition. Furthermore, we show that this system realizes protected quantum memory, and we discuss the implementation of one- and two-qubit gates in this setup.
spellingShingle Dorner, U
Fedichev, P
Jaksch, D
Lewenstein, M
Zoller, P
Entangling strings of neutral atoms in 1D atomic pipeline structures.
title Entangling strings of neutral atoms in 1D atomic pipeline structures.
title_full Entangling strings of neutral atoms in 1D atomic pipeline structures.
title_fullStr Entangling strings of neutral atoms in 1D atomic pipeline structures.
title_full_unstemmed Entangling strings of neutral atoms in 1D atomic pipeline structures.
title_short Entangling strings of neutral atoms in 1D atomic pipeline structures.
title_sort entangling strings of neutral atoms in 1d atomic pipeline structures
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AT jakschd entanglingstringsofneutralatomsin1datomicpipelinestructures
AT lewensteinm entanglingstringsofneutralatomsin1datomicpipelinestructures
AT zollerp entanglingstringsofneutralatomsin1datomicpipelinestructures