Matter Fields and Non-Abelian Gauge Fields Localized on Walls
- NázevTitle
- Matter Fields and Non-Abelian Gauge Fields Localized on WallsMatter Fields and Non-Abelian Gauge Fields Localized on Walls
- Druh výsledkuResult type
- Článek v časopiseJournal article
- AutořiAuthors
- M. Arai, F. Blaschke, M. Eto, N. Sakai
- Klíčová slovaKeywords
- Domain walls, brane-world scenario
- Časopis / citaceJournal / citation
- arXiv.org hep-th/12(08) (2012)
- RokYear
- 2012
- JazykLanguage
- eng
- ZáznamyRecords
- ProjektProject
- Mezinárodní experiment ATLAS-CERNInternational Experiment ATLAS-CERN; Supersymetrie v teoriích pole a strun a ve fyzice za Standardním modelemSupersymmetry in field and string theories and in physics beyond the Standard Model
- Citace ke staženíDownload citation
- TXT · BibTeX
AbstraktAbstract
Massless matter fields and non-Abelian gauge fields are localized on domain walls in a (4+1)-dimensional gauge theory with flavor symmetry. We also introduce flavor gauge fields and a scalar-field-dependent gauge coupling, which provides massless non-Abelian gauge fields localized on the wall. We find a chiral Lagrangian interacting minimally with the non-Abelian gauge field together with nonlinear interactions of moduli fields as the (3+1)-dimensional effective field theory up to the second order of derivatives. Our result provides a step towards a realistic model building of brane-world scenario using topological solitons.
Massless matter fields and non-Abelian gauge fields are localized on domain walls in a (4+1)-dimensional gauge theory with flavor symmetry. We also introduce flavor gauge fields and a scalar-field-dependent gauge coupling, which provides massless non-Abelian gauge fields localized on the wall. We find a chiral Lagrangian interacting minimally with the non-Abelian gauge field together with nonlinear interactions of moduli fields as the (3+1)-dimensional effective field theory up to the second order of derivatives. Our result provides a step towards a realistic model building of brane-world scenario using topological solitons.