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AuthorMukherjee, V.dc.contributor.author
AuthorGiovannetti, V.dc.contributor.author
AuthorFazio, R.dc.contributor.author
AuthorHuelga, Susana F.dc.contributor.author
AuthorCalarco, T.dc.contributor.author
AuthorMontangero, S.dc.contributor.author
Date of accession2022-12-06T16:16:20Zdc.date.accessioned
Available in OPARU since2022-12-06T16:16:20Zdc.date.available
Date of first publication2015-06-23dc.date.issued
AbstractAbstract We study optimal control strategies to optimize the relaxation rate towards the fixed point of a quantum system in the presence of a non-Markovian (NM) dissipative bath. Contrary to naive expectations that suggest that memory effects might be exploited to improve optimal control effectiveness, NM effects influence the optimal strategy in a non trivial way: we present a necessary condition to be satisfied so that the effectiveness of optimal control is enhanced by NM subject to suitable unitary controls. For illustration, we specialize our findings for the case of the dynamics of single qubit amplitude damping channels. The optimal control strategy presented here can be used to implement optimal cooling processes in quantum technologies and may have implications in quantum thermodynamics when assessing the efficiency of thermal micro-machines.dc.description.abstract
Languageendc.language.iso
PublisherUniversität Ulmdc.publisher
LicenseCC BY 3.0dc.rights
Link to license texthttps://creativecommons.org/licenses/by/3.0/dc.rights.uri
Keywordoptimal control of quantum systemsdc.subject
Keywordopen quantum systemsdc.subject
Keywordnon-Markovian dynamicsdc.subject
Keywordquantum speed limitdc.subject
Dewey Decimal GroupDDC 530 / Physicsdc.subject.ddc
LCSHQuantum Systemsdc.subject.lcsh
TitleEfficiency of quantum controlled non-Markovian thermalizationdc.title
Resource typeWissenschaftlicher Artikeldc.type
SWORD Date2022-02-10T21:36:55Zdc.date.updated
VersionpublishedVersiondc.description.version
DOIhttp://dx.doi.org/10.18725/OPARU-46268dc.identifier.doi
URNhttp://nbn-resolving.de/urn:nbn:de:bsz:289-oparu-46344-6dc.identifier.urn
GNDQuantenmechanisches Systemdc.subject.gnd
FacultyFakultät für Naturwissenschaftenuulm.affiliationGeneral
InstitutionInstitut für Komplexe Quantensystemeuulm.affiliationSpecific
InstitutionCenter for Integrated Quantum Science and Technology (IQST)uulm.affiliationSpecific
InstitutionInstitut für Theoretische Physikuulm.affiliationSpecific
Peer reviewjauulm.peerReview
DCMI TypeTextuulm.typeDCMI
CategoryPublikationenuulm.category
DOI of original publication10.1088/1367-2630/17/6/063031dc.relation1.doi
Source - Title of sourceNew Journal of Physicssource.title
Source - Place of publicationIOP Publishingsource.publisher
Source - Volume17source.volume
Source - Issue6source.issue
Source - Year2015source.year
Source - Article number063031source.articleNumber
Source - eISSN1367-2630source.identifier.eissn
EU project uulmQIBEC / Quantum Interferometry with Bose-Einstein Condensates / EC / FP7 / 284584uulm.projectEU
EU project uulmSIQS / Simulators and Interfaces with Quantum Systems / EC / FP7 / 600645uulm.projectEU
EU project uulmPAPETS / Phonon-Assisted Processes for Energy Transfer and Sensing / EC / FP7 / 323901uulm.projectEU
EU project uulmQUCHIP / Quantum Simulation on a Photonic Chip / EC / H2020 / 641039uulm.projectEU
WoS000358929400006uulm.identifier.wos
Bibliographyuulmuulm.bibliographie
DFG project uulmTRR 21 / CO.CO.MAT / Quantenkontrolle in maßgeschneiderter Materie / DFG / 5486344uulm.projectDFG


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