Fermion Quantum Numbers and Families Replication from an Extension of Space-Time Relativity
P. Maraner
Abstract
The fermionic sector of the Standard Model of Elementary Particles emerges as the low energy limit of a single fermionic field freely propagating in a higher dimensional background. The local geometrical framework is obtained by enforcing at a space-time level the whole gauge group SO(1,3) x U(1) x SU(2) x SU(3) associated to fundamental interactions; equivalently, by assuming that internal gauge transformations are indeed local space-time transformations. The geometry naturally embodies freedoms corresponding to gravitational and non-gravitational gauge fields. As a consequence of the fact that the structural group is in part unitary, the motion of test particles gets automatically squeezed on an effective 1+3 space-time. Dimensional reduction takes place without compactification. In close analogy to the special relativistic mass-energy relation, the theory associates to every elementary particle an intrinsic energy presumably of the order of the Planck scale. The theory predicts the existence of a right-handed component of the neutrino and indicates the possibility of an extra U(1) gauge interaction.
Create a lesson
Related papers
Late-time electric screening in dS from EAdS loops
Ernesto Bianchi, Sacha Ployet, Charlotte Sleight et al.
Imaginary HTEE: Probing Criticality and Coherence
M. Ali-Akbari, M. M. Daryaei Goki
Carrollian Yang-Mills theories in the homogeneous temporal gauge
Carmelo P. Martin
Black Strings and Black Holes: Worldsheet Spectra and Near-Extremal Limits
Ziyi Li
Giant Graviton Expansions from Symmetric Functions and Free Fermions
Min-xin Huang
Geometry and holography of AdS2×S2: towards the field theory dual
Miroslava Mosso Rojas, Anayeli Ramirez