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On the space-time geometry of quantum systems

We describe the time evolution of quantum systems in a classical background space-time by means of a covariant derivative in an infinite dimensional vector bundle. The corresponding parallel transport operator along a timelike curve \cC is interpreted as the time evolution operator of an observer mo...

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Autor principal: Graudenz, Dirk
Lenguaje:eng
Publicado: 1994
Materias:
Acceso en línea:http://cds.cern.ch/record/273327
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author Graudenz, Dirk
author_facet Graudenz, Dirk
author_sort Graudenz, Dirk
collection CERN
description We describe the time evolution of quantum systems in a classical background space-time by means of a covariant derivative in an infinite dimensional vector bundle. The corresponding parallel transport operator along a timelike curve \cC is interpreted as the time evolution operator of an observer moving along \cC. The holonomy group of the connection, which can be interpreted as a group of local symmetry transformations, and the set of observables have to satisfy certain consistency conditions. Two examples related to local \mbox{SO}(3) and \mbox{U}(1)-symmetries, respectively, are discussed in detail. The theory developed in this paper may also be useful to analyze situations where the underlying space-time manifold has closed timelike curves.
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institution Organización Europea para la Investigación Nuclear
language eng
publishDate 1994
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spelling cern-2733272023-03-14T20:43:29Zhttp://cds.cern.ch/record/273327engGraudenz, DirkOn the space-time geometry of quantum systemsGeneral Relativity and CosmologyWe describe the time evolution of quantum systems in a classical background space-time by means of a covariant derivative in an infinite dimensional vector bundle. The corresponding parallel transport operator along a timelike curve \cC is interpreted as the time evolution operator of an observer moving along \cC. The holonomy group of the connection, which can be interpreted as a group of local symmetry transformations, and the set of observables have to satisfy certain consistency conditions. Two examples related to local \mbox{SO}(3) and \mbox{U}(1)-symmetries, respectively, are discussed in detail. The theory developed in this paper may also be useful to analyze situations where the underlying space-time manifold has closed timelike curves.We describe the time evolution of quantum systems in a classical background space-time by means of a covariant derivative in an infinite dimensional vector bundle. The corresponding parallel transport operator along a timelike curve $\cC$ is interpreted as the time evolution operator of an observer moving along $\cC$. The holonomy group of the connection, which can be interpreted as a group of local symmetry transformations, and the set of observables have to satisfy certain consistency conditions. Two examples related to local $\mbox{SO}(3)$ and $\mbox{U}(1)$-symmetries, respectively, are discussed in detail. The theory developed in this paper may also be useful to analyze situations where the underlying space-time manifold has closed timelike curves.gr-qc/9412013CERN-TH-7516-94CERN-TH-7516-94oai:cds.cern.ch:2733271994-12-05
spellingShingle General Relativity and Cosmology
Graudenz, Dirk
On the space-time geometry of quantum systems
title On the space-time geometry of quantum systems
title_full On the space-time geometry of quantum systems
title_fullStr On the space-time geometry of quantum systems
title_full_unstemmed On the space-time geometry of quantum systems
title_short On the space-time geometry of quantum systems
title_sort on the space-time geometry of quantum systems
topic General Relativity and Cosmology
url http://cds.cern.ch/record/273327
work_keys_str_mv AT graudenzdirk onthespacetimegeometryofquantumsystems