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Rare Decays Probing Physics Beyond the Standard Theory

In the last 50 years we have seen how an initially ad-hoc and not widely accepted theory of the strong and electroweak interactions (Standard Theory: ST) has correctly predicted the entire accelerator based experimental observations with incredible accuracy (with the important exception of neutrino...

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Autor principal: Teubert, Frederic
Lenguaje:eng
Publicado: 2015
Materias:
Acceso en línea:https://dx.doi.org/10.1142/9789814733519_0018
http://cds.cern.ch/record/2058918
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author Teubert, Frederic
author_facet Teubert, Frederic
author_sort Teubert, Frederic
collection CERN
description In the last 50 years we have seen how an initially ad-hoc and not widely accepted theory of the strong and electroweak interactions (Standard Theory: ST) has correctly predicted the entire accelerator based experimental observations with incredible accuracy (with the important exception of neutrino oscillation experiments). Decays of the ST particles (quarks and leptons), which are rare due to some symmetry of the theory, have played an important role in the formalism of the ST. These rare decays have been powerful tools to search for new particle interactions with the ST particles, which may not necessarily have the same symmetries. In this article, I will describe the indirect search for evidence of new physics (NP) using quark and lepton flavour changing neutral decays, which are highly suppressed within the ST, and constitute strong probes of potential new flavour structures.
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institution Organización Europea para la Investigación Nuclear
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spelling cern-20589182022-08-10T12:40:45Zdoi:10.1142/9789814733519_0018http://cds.cern.ch/record/2058918engTeubert, FredericRare Decays Probing Physics Beyond the Standard TheoryParticle Physics - ExperimentIn the last 50 years we have seen how an initially ad-hoc and not widely accepted theory of the strong and electroweak interactions (Standard Theory: ST) has correctly predicted the entire accelerator based experimental observations with incredible accuracy (with the important exception of neutrino oscillation experiments). Decays of the ST particles (quarks and leptons), which are rare due to some symmetry of the theory, have played an important role in the formalism of the ST. These rare decays have been powerful tools to search for new particle interactions with the ST particles, which may not necessarily have the same symmetries. In this article, I will describe the indirect search for evidence of new physics (NP) using quark and lepton flavour changing neutral decays, which are highly suppressed within the ST, and constitute strong probes of potential new flavour structures.In the last 50 years we have seen how an initially ad-hoc and not widely accepted theory of the strong and electroweak interactions (Standard Theory: ST) has correctly predicted the entire accelerator based experimental observations with incredible accuracy (with the important exception of neutrino oscillation experiments). Decays of the ST particles (quarks and leptons), which are rare due to some symmetry of the theory, have played an important role in the formalism of the ST. These rare decays have been powerful tools to search for new particle interactions with the ST particles, which may not necessarily have the same symmetries. In this article, I will describe the indirect search for evidence of new physics (NP) using quark and lepton flavour changing neutral decays, which are highly suppressed within the ST, and constitute strong probes of potential new flavour structures.In the last 50 years we have seen how an initially ad hoc and not widely accepted theory of the strong and electroweak interactions (Standard Theory: ST) has correctly predicted the entire accelerator based experimental observations with incredible accuracy. Decays of the ST particles (quarks and leptons), which are rare due to some symmetry of the theory, have played an important role in the making of the ST. These rare decays have been powerful tools to search for interactions of the ST particles with new particles which not necessarily have the same symmetries. In this article, I will describe the indirect search for evidence of new physics (NP) using quark and lepton flavour changing neutral decays, which are highly suppressed within the ST and constitute strong probes of potential new flavour structures.arXiv:1510.03169oai:cds.cern.ch:20589182015-10-12
spellingShingle Particle Physics - Experiment
Teubert, Frederic
Rare Decays Probing Physics Beyond the Standard Theory
title Rare Decays Probing Physics Beyond the Standard Theory
title_full Rare Decays Probing Physics Beyond the Standard Theory
title_fullStr Rare Decays Probing Physics Beyond the Standard Theory
title_full_unstemmed Rare Decays Probing Physics Beyond the Standard Theory
title_short Rare Decays Probing Physics Beyond the Standard Theory
title_sort rare decays probing physics beyond the standard theory
topic Particle Physics - Experiment
url https://dx.doi.org/10.1142/9789814733519_0018
http://cds.cern.ch/record/2058918
work_keys_str_mv AT teubertfrederic raredecaysprobingphysicsbeyondthestandardtheory