Electroweak Symmetry Breaking: By Dynamically Generated Masses of Quarks and Leptons
- NázevTitle
- Electroweak Symmetry Breaking: By Dynamically Generated Masses of Quarks and LeptonsElectroweak Symmetry Breaking: By Dynamically Generated Masses of Quarks and Leptons
- Druh výsledkuResult type
- Kniha / kapitolaBook / chapter
- AutořiAuthors
- A. Smetana
- DOIDOI
- 10.1007/978-3-319-07073-5
- Časopis / citaceJournal / citation
- Cham: Springer International Publishing, 2014. Springer Theses, Recognizing Outstanding Ph.D. Research. ISSN 2190-5053. ISBN 978-3-319-07072-8.
- RokYear
- 2014
- JazykLanguage
- eng
- RIVRIV
- RIV/68407700:21670/14:00228031!RIV15-MSM-21670___
- ProjektProject
- Příspěvek k rozšíření velké výzkumné infrastruktury evropského významuContribution of the Czech Republic to the extension of the large research infrastructure of European importance; Spolupráce ČR s CERNCollaboration of the Czech Republic with CERN; Fundamentální experimenty ve fyzice mikrosvětaFundamental Experiments in Physics of Microworld; Institucionální podpora na rozvoj výzkumné org.Institucionální podpora na rozvoj výzkumné org.; Mezinárodní experiment ATLAS-CERNInternational Experiment ATLAS-CERN
AbstraktAbstract
The aim of the thesis is to study models of the electroweak symmetry breaking caused by dynamically generated masses of quarks and leptons. (1) We perform the basic analysis whether the main underlying idea, that the masses of only known fermions can provide the electroweak symmetry breaking, is actually feasible. For that we elaborate a two-composite-Higgs-doublet model of the top-quark and neutrino condensation. The model suggests rather large number, Oð100Þ, of righthanded neutrinos. (2) We analyze the model of strong Yukawa dynamics where the dynamical fermion mass generation is provided by exchanges of new elementary massive complex doublet scalar fields. We focus on solving the coupled Schwinger–Dyson equations for fermion and scalar self-energies by means of approximative methods. We document that strongly hierarchical mass spectra can be reproduced. (3) We elaborate the flavor gauge model where the dynamical fermion mass generation is provided by asymptotically free nonAbelian self-breaking flavor gauge dynamics. We show that the Majorana type condensation of right-handed neutrinos in the flavor sextet representation triggers the complete flavor symmetry breaking. It leads to huge right-handed neutrino Majorana masses.
The aim of the thesis is to study models of the electroweak symmetry breaking caused by dynamically generated masses of quarks and leptons. (1) We perform the basic analysis whether the main underlying idea, that the masses of only known fermions can provide the electroweak symmetry breaking, is actually feasible. For that we elaborate a two-composite-Higgs-doublet model of the top-quark and neutrino condensation. The model suggests rather large number, Oð100Þ, of righthanded neutrinos. (2) We analyze the model of strong Yukawa dynamics where the dynamical fermion mass generation is provided by exchanges of new elementary massive complex doublet scalar fields. We focus on solving the coupled Schwinger–Dyson equations for fermion and scalar self-energies by means of approximative methods. We document that strongly hierarchical mass spectra can be reproduced. (3) We elaborate the flavor gauge model where the dynamical fermion mass generation is provided by asymptotically free nonAbelian self-breaking flavor gauge dynamics. We show that the Majorana type condensation of right-handed neutrinos in the flavor sextet representation triggers the complete flavor symmetry breaking. It leads to huge right-handed neutrino Majorana masses.