Exploring Framed Gauge Theory as Basis for Physical Models
arXiv:1111.3832 · doi:10.1142/S0217751X12300025
Abstract
It is shown that by introducing as dynamical variables in the formulation of gauge theories the frame vectors (or vielbeins) in internal symmetry space, in addition to the standard gauge boson and matter fermion fields, one obtains: (i) for the symmetry, the standard electroweak theory with the Higgs field thrown in as part of the framed gauge theoretical structure, (ii) for the symmetry, a "framed standard model" with, apart from the Higgs field as before, a global symmetry to play the role of fermion generations, plus some other properties which are shown elsewhere to give to both quarks and leptons hierarchical mass and mixing patterns similar to those experimentally observed. Besides, the "framing" of the standard model as such has brought the particle theory closer in structure to the theory of gravity where vierbeins have long figured as dynamical variables. Although most of the results have already been reported before, time and hindsight have allowed their presentation in this review to be made more transparent and succint.
34 pages, Latex
References in corpus (4)
Cited by in corpus (6)
- Gauge-covariant canonical formalism revisited with application to the proton spin decomposition
- A First Test of the Framed Standard Model against Experiment
- A Closer Study of the Framed Standard Model Yielding Testable New Physics plus a Hidden Sector with Dark Matter Candidates
- Generation patterns, modified mixing, and hidden sector with dark matter candidates as framed standard model results
- Unified FSM treatment of CP physics extended to hidden sector giving (i) for leptons as prediction, (ii) new hints on the material content of the universe
- A Comprehensive Mechanism Reproducing the Mass and Mixing Parameters of Quarks and Leptons