Entropic information of dynamical AdS/QCD holographic models

The Shannon based conditional entropy that underlies five-dimensional Einstein–Hilbert gravity coupled to a dilaton field is investigated in the context of dynamical holographic AdS/QCD models. Considering the UV and IR dominance limits of such AdS/QCD models, the conditional entropy is shown to she...

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Main Authors: Alex E. Bernardini, Roldão da Rocha
Format: Article
Language:English
Published: Elsevier 2016-11-01
Series:Physics Letters B
Online Access:http://www.sciencedirect.com/science/article/pii/S0370269316305172
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spelling doaj-e6ca98570f1741ed885c72bdaff4c48d2020-11-24T20:45:14ZengElsevierPhysics Letters B0370-26932016-11-01762107115Entropic information of dynamical AdS/QCD holographic modelsAlex E. Bernardini0Roldão da Rocha1Departamento de Física, Universidade Federal de São Carlos, PO Box 676, 13565-905, São Carlos, SP, BrazilCentro de Matemática, Computação e Cognição, Universidade Federal do ABC, UFABC, 09210-580, Santo André, Brazil; Corresponding author.The Shannon based conditional entropy that underlies five-dimensional Einstein–Hilbert gravity coupled to a dilaton field is investigated in the context of dynamical holographic AdS/QCD models. Considering the UV and IR dominance limits of such AdS/QCD models, the conditional entropy is shown to shed some light onto the meson classification schemes, which corroborate with the existence of light-flavor mesons of lower spins in Nature. Our analysis is supported by a correspondence between statistical mechanics and information entropy which establishes the physical grounds to the Shannon information entropy, also in the context of statistical mechanics, and provides some specificities for accurately extending the entropic discussion to continuous modes of physical systems. From entropic informational grounds, the conditional entropy allows one to identify the lower experimental/phenomenological occurrence of higher spin mesons in Nature. Moreover, it introduces a quantitative theoretical apparatus for studying the instability of high spin light-flavor mesons.http://www.sciencedirect.com/science/article/pii/S0370269316305172
collection DOAJ
language English
format Article
sources DOAJ
author Alex E. Bernardini
Roldão da Rocha
spellingShingle Alex E. Bernardini
Roldão da Rocha
Entropic information of dynamical AdS/QCD holographic models
Physics Letters B
author_facet Alex E. Bernardini
Roldão da Rocha
author_sort Alex E. Bernardini
title Entropic information of dynamical AdS/QCD holographic models
title_short Entropic information of dynamical AdS/QCD holographic models
title_full Entropic information of dynamical AdS/QCD holographic models
title_fullStr Entropic information of dynamical AdS/QCD holographic models
title_full_unstemmed Entropic information of dynamical AdS/QCD holographic models
title_sort entropic information of dynamical ads/qcd holographic models
publisher Elsevier
series Physics Letters B
issn 0370-2693
publishDate 2016-11-01
description The Shannon based conditional entropy that underlies five-dimensional Einstein–Hilbert gravity coupled to a dilaton field is investigated in the context of dynamical holographic AdS/QCD models. Considering the UV and IR dominance limits of such AdS/QCD models, the conditional entropy is shown to shed some light onto the meson classification schemes, which corroborate with the existence of light-flavor mesons of lower spins in Nature. Our analysis is supported by a correspondence between statistical mechanics and information entropy which establishes the physical grounds to the Shannon information entropy, also in the context of statistical mechanics, and provides some specificities for accurately extending the entropic discussion to continuous modes of physical systems. From entropic informational grounds, the conditional entropy allows one to identify the lower experimental/phenomenological occurrence of higher spin mesons in Nature. Moreover, it introduces a quantitative theoretical apparatus for studying the instability of high spin light-flavor mesons.
url http://www.sciencedirect.com/science/article/pii/S0370269316305172
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