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Physics Beyond the Standard Model

The Standard Model is in good shape, apart possibly from g_\mu - 2 and some niggling doubts about the electroweak data. Something like a Higgs boson is required to provide particle masses, but theorists are actively considering alternatives. The problems of flavour, unification and quantum gravity w...

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Autor principal: Ellis, John
Lenguaje:eng
Publicado: 2009
Materias:
Acceso en línea:https://dx.doi.org/10.1016/j.nuclphysa.2009.05.034
http://cds.cern.ch/record/1159511
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author Ellis, John
author_facet Ellis, John
author_sort Ellis, John
collection CERN
description The Standard Model is in good shape, apart possibly from g_\mu - 2 and some niggling doubts about the electroweak data. Something like a Higgs boson is required to provide particle masses, but theorists are actively considering alternatives. The problems of flavour, unification and quantum gravity will require physics beyond the Standard Model, and astrophysics and cosmology also provide reasons to expect physics beyond the Standard Model, in particular to provide the dark matter and explain the origin of the matter in the Universe. Personally, I find supersymmetry to be the most attractive option for new physics at the TeV scale. The LHC should establish the origin of particle masses has good prospects for discovering dark matter, and might also cast light on unification and even quantum gravity. Important roles may also be played by lower-energy experiments, astrophysics and cosmology in the searches for new physics beyond the Standard Model.
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institution Organización Europea para la Investigación Nuclear
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spelling cern-11595112023-04-01T02:55:15Zdoi:10.1016/j.nuclphysa.2009.05.034http://cds.cern.ch/record/1159511engEllis, JohnPhysics Beyond the Standard ModelParticle Physics - PhenomenologyThe Standard Model is in good shape, apart possibly from g_\mu - 2 and some niggling doubts about the electroweak data. Something like a Higgs boson is required to provide particle masses, but theorists are actively considering alternatives. The problems of flavour, unification and quantum gravity will require physics beyond the Standard Model, and astrophysics and cosmology also provide reasons to expect physics beyond the Standard Model, in particular to provide the dark matter and explain the origin of the matter in the Universe. Personally, I find supersymmetry to be the most attractive option for new physics at the TeV scale. The LHC should establish the origin of particle masses has good prospects for discovering dark matter, and might also cast light on unification and even quantum gravity. Important roles may also be played by lower-energy experiments, astrophysics and cosmology in the searches for new physics beyond the Standard Model.The Standard Model is in good shape, apart possibly from g μ − 2 and some niggling doubts about the electroweak data. Something like a Higgs boson is required to provide particle masses, but theorists are actively considering alternatives. The problems of flavour, unification and quantum gravity will require physics beyond the Standard Model, and astrophysics and cosmology also provide reasons to expect physics beyond the Standard Model, in particular to provide the dark matter and explain the origin of the matter in the Universe. Personally, I find supersymmetry to be the most attractive option for new physics at the TeV scale. The LHC should establish the origin of particle masses, has good prospects for discovering dark matter, and might also cast light on unification and even quantum gravity. Important roles may also be played by lower-energy experiments, astrophysics and cosmology in the searches for new physics beyond the Standard Model.The Standard Model is in good shape, apart possibly from g_μ - 2 and some niggling doubts about the electroweak data. Something like a Higgs boson is required to provide particle masses, but theorists are actively considering alternatives. The problems of flavour, unification and quantum gravity will require physics beyond the Standard Model, and astrophysics and cosmology also provide reasons to expect physics beyond the Standard Model, in particular to provide the dark matter and explain the origin of the matter in the Universe. Personally, I find supersymmetry to be the most attractive option for new physics at the TeV scale. The LHC should establish the origin of particle masses has good prospects for discovering dark matter, and might also cast light on unification and even quantum gravity. Important roles may also be played by lower-energy experiments, astrophysics and cosmology in the searches for new physics beyond the Standard Model.arXiv:0902.0357CERN-PH-TH-2009-020CERN-PH-TH/2009-020CERN-PH-TH-2008-020-[SIC!]CERN-PH-TH-2009-020oai:cds.cern.ch:11595112009-02-03
spellingShingle Particle Physics - Phenomenology
Ellis, John
Physics Beyond the Standard Model
title Physics Beyond the Standard Model
title_full Physics Beyond the Standard Model
title_fullStr Physics Beyond the Standard Model
title_full_unstemmed Physics Beyond the Standard Model
title_short Physics Beyond the Standard Model
title_sort physics beyond the standard model
topic Particle Physics - Phenomenology
url https://dx.doi.org/10.1016/j.nuclphysa.2009.05.034
http://cds.cern.ch/record/1159511
work_keys_str_mv AT ellisjohn physicsbeyondthestandardmodel