Cold Dark Matter: A Gluonic Bose–Einstein Condensate in Anti-de Sitter Space Time

In the same way as the realization of some of the famous gedanken experiments imagined by the founding fathers of quantum mechanics has recently led to the current renewal of the interpretation of quantum physics, it seems that the most recent progress of observational astrophysics can be interprete...

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Autores principales:	Gilles Cohen-Tannoudji, Jean-Pierre Gazeau
Formato:	article
Lenguaje:	EN
Publicado:	MDPI AG 2021
Materias:	cosmological constant dark matter dark energy de Sitter anti-de Sitter quark gluon plasma Elementary particle physics QC793-793.5
Acceso en línea:	https://doaj.org/article/2952cb540f364db99305b49c12dad972
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spelling	oai:doaj.org-article:2952cb540f364db99305b49c12dad9722021-11-25T19:09:28ZCold Dark Matter: A Gluonic Bose–Einstein Condensate in Anti-de Sitter Space Time10.3390/universe71104022218-1997https://doaj.org/article/2952cb540f364db99305b49c12dad9722021-10-01T00:00:00Zhttps://www.mdpi.com/2218-1997/7/11/402https://doaj.org/toc/2218-1997In the same way as the realization of some of the famous gedanken experiments imagined by the founding fathers of quantum mechanics has recently led to the current renewal of the interpretation of quantum physics, it seems that the most recent progress of observational astrophysics can be interpreted as the realization of some cosmological gedanken experiments such as the removal from the universe of the whole visible matter or the cosmic time travel leading to a new cosmological standard model. This standard model involves two dark components of the universe, dark energy and dark matter. Whereas dark energy is usually associated with the cosmological constant, we propose explaining dark matter as a pure QCD effect, namely a gluonic Bose–Einstein condensate, following the transition from the quark gluon plasma phase to the colorless hadronic phase. Our approach not only allows us to assume a Dark/Visible ratio equal to 11/2 but also provides gluons (and di-gluons, viewed as quasi-particles) with an extra mass of vibrational nature. Such an interpretation would support the idea that, apart from the violation of the matter/antimatter symmetry satisfying the Sakharov’s conditions, the reconciliation of particle physics and cosmology needs not the recourse to any ad hoc fields, particles or hidden variables.Gilles Cohen-TannoudjiJean-Pierre GazeauMDPI AGarticlecosmological constantdark matterdark energyde Sitteranti-de Sitterquark gluon plasmaElementary particle physicsQC793-793.5ENUniverse, Vol 7, Iss 402, p 402 (2021)
institution	DOAJ
collection	DOAJ
language	EN
topic	cosmological constant dark matter dark energy de Sitter anti-de Sitter quark gluon plasma Elementary particle physics QC793-793.5
spellingShingle	cosmological constant dark matter dark energy de Sitter anti-de Sitter quark gluon plasma Elementary particle physics QC793-793.5 Gilles Cohen-Tannoudji Jean-Pierre Gazeau Cold Dark Matter: A Gluonic Bose–Einstein Condensate in Anti-de Sitter Space Time
description	In the same way as the realization of some of the famous gedanken experiments imagined by the founding fathers of quantum mechanics has recently led to the current renewal of the interpretation of quantum physics, it seems that the most recent progress of observational astrophysics can be interpreted as the realization of some cosmological gedanken experiments such as the removal from the universe of the whole visible matter or the cosmic time travel leading to a new cosmological standard model. This standard model involves two dark components of the universe, dark energy and dark matter. Whereas dark energy is usually associated with the cosmological constant, we propose explaining dark matter as a pure QCD effect, namely a gluonic Bose–Einstein condensate, following the transition from the quark gluon plasma phase to the colorless hadronic phase. Our approach not only allows us to assume a Dark/Visible ratio equal to 11/2 but also provides gluons (and di-gluons, viewed as quasi-particles) with an extra mass of vibrational nature. Such an interpretation would support the idea that, apart from the violation of the matter/antimatter symmetry satisfying the Sakharov’s conditions, the reconciliation of particle physics and cosmology needs not the recourse to any ad hoc fields, particles or hidden variables.
format	article
author	Gilles Cohen-Tannoudji Jean-Pierre Gazeau
author_facet	Gilles Cohen-Tannoudji Jean-Pierre Gazeau
author_sort	Gilles Cohen-Tannoudji
title	Cold Dark Matter: A Gluonic Bose–Einstein Condensate in Anti-de Sitter Space Time
title_short	Cold Dark Matter: A Gluonic Bose–Einstein Condensate in Anti-de Sitter Space Time
title_full	Cold Dark Matter: A Gluonic Bose–Einstein Condensate in Anti-de Sitter Space Time
title_fullStr	Cold Dark Matter: A Gluonic Bose–Einstein Condensate in Anti-de Sitter Space Time
title_full_unstemmed	Cold Dark Matter: A Gluonic Bose–Einstein Condensate in Anti-de Sitter Space Time
title_sort	cold dark matter: a gluonic bose–einstein condensate in anti-de sitter space time
publisher	MDPI AG
publishDate	2021
url	https://doaj.org/article/2952cb540f364db99305b49c12dad972
work_keys_str_mv	AT gillescohentannoudji colddarkmatteragluonicboseeinsteincondensateinantidesitterspacetime AT jeanpierregazeau colddarkmatteragluonicboseeinsteincondensateinantidesitterspacetime
_version_	1718410204191653888

Cold Dark Matter: A Gluonic Bose–Einstein Condensate in Anti-de Sitter Space Time

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