Dissipative quantum-light-field engineering

We put forward a dissipative preparation scheme for strongly correlated photon states. Our approach is based on a two-photon loss mechanism that is realized via a single four-level atom inside a bimodal optical cavity. Each elementary two-photon emission event removes one photon out of each of the t...

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Main Authors: Kiffner, M, Dorner, U, Jaksch, D
Format: Journal article
Language:English
Published: 2012
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author Kiffner, M
Dorner, U
Jaksch, D
author_facet Kiffner, M
Dorner, U
Jaksch, D
author_sort Kiffner, M
collection OXFORD
description We put forward a dissipative preparation scheme for strongly correlated photon states. Our approach is based on a two-photon loss mechanism that is realized via a single four-level atom inside a bimodal optical cavity. Each elementary two-photon emission event removes one photon out of each of the two modes. The dark states of this loss mechanism are given by NOON states and arbitrary superpositions thereof. We find that the steady state of the two cavity modes exhibits entanglement and, for certain parameters, a mixture of two coherent entangled states is produced. We discuss how the quantum correlations in the cavity modes and the output fields can be measured. © 2012 American Physical Society.
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spelling oxford-uuid:e6dbfce7-8115-4b8d-b056-9679baea383a2022-03-27T10:33:56ZDissipative quantum-light-field engineeringJournal articlehttp://purl.org/coar/resource_type/c_dcae04bcuuid:e6dbfce7-8115-4b8d-b056-9679baea383aEnglishSymplectic Elements at Oxford2012Kiffner, MDorner, UJaksch, DWe put forward a dissipative preparation scheme for strongly correlated photon states. Our approach is based on a two-photon loss mechanism that is realized via a single four-level atom inside a bimodal optical cavity. Each elementary two-photon emission event removes one photon out of each of the two modes. The dark states of this loss mechanism are given by NOON states and arbitrary superpositions thereof. We find that the steady state of the two cavity modes exhibits entanglement and, for certain parameters, a mixture of two coherent entangled states is produced. We discuss how the quantum correlations in the cavity modes and the output fields can be measured. © 2012 American Physical Society.
spellingShingle Kiffner, M
Dorner, U
Jaksch, D
Dissipative quantum-light-field engineering
title Dissipative quantum-light-field engineering
title_full Dissipative quantum-light-field engineering
title_fullStr Dissipative quantum-light-field engineering
title_full_unstemmed Dissipative quantum-light-field engineering
title_short Dissipative quantum-light-field engineering
title_sort dissipative quantum light field engineering
work_keys_str_mv AT kiffnerm dissipativequantumlightfieldengineering
AT dorneru dissipativequantumlightfieldengineering
AT jakschd dissipativequantumlightfieldengineering