An alternative model of particle physics in a 10-dimension (pseudo) Euclidian space-time
Richard Bonneville

TL;DR
This paper proposes a novel 10-dimensional space-time model embedding 4D physics, where different particle types experience distinct gauge symmetries, leading to a unified yet differentiated description of fundamental interactions.
Contribution
It introduces a 10D space-time framework with specific symmetry assumptions, providing a new unified model for particle interactions distinct from the Standard Model.
Findings
Hadrons associated with a gauge group similar to SU(3) for strong interactions.
Leptons associated with a gauge group similar to SU(2)xU(1) for electroweak interactions.
Extension to include gravity introduces an effective vector field causing apparent violation of the equivalence principle.
Abstract
A consistent description of the fundamental interactions of particle physics based upon the assumption of 6 real extra dimensions is presented. The usual 4-dimension space-time, a curved hypersurface with the Lorentz group as local symmetry, is assumed to be embedded in a larger flat 10-dimension space-time. Two additional assumptions are made: (i) the orthogonal 6-d space in any point of the hypersurface is invariant under the orthogonal group SO(6) or one of its subgroups, (ii) in that space only the invariant, or distinguished, subgroups of SO(6) can be symmetry groups for the physical states. There are only two such possibilities, each of them corresponding to one type of particles: (i) hadrons, experiencing a gauge field associated to a real symmetry group GH(6) , isomorphous to SU(3) and identified with the strong interaction, and (ii) leptons experiencing another gauge field…
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Taxonomy
TopicsNoncommutative and Quantum Gravity Theories · Particle physics theoretical and experimental studies · International Science and Diplomacy
