Exceptional quantum geometry and particle physics
Michel Dubois-Violette

TL;DR
This paper explores how exceptional quantum geometries, based on Jordan algebras and triality, could underpin internal spaces in particle physics, linking algebraic structures to the Standard Model's generations and symmetries.
Contribution
It introduces a novel framework connecting exceptional Jordan algebras and quantum geometry to particle physics, including differential calculus and connections on Jordan modules.
Findings
Associates triality with three generations of particles.
Links octonionic structures to quark-lepton symmetry.
Proposes replacing classical function algebras with Jordan algebra-valued functions.
Abstract
Based on an interpretation of the quark-lepton symmetry in terms of the unimodularity of the color group and on the existence of 3 generations, we develop an argumentation suggesting that the "finite quantum space" corresponding to the exceptional real Jordan algebra of dimension 27 (the Euclidean Albert algebra) is relevant for the description of internal spaces in the theory of particles. In particular, the triality which corresponds to the 3 off-diagonal octonionic elements of the exceptional algebra is associated to the 3 generations of the Standard Model while the representation of the octonions as a complex 4-dimensional space is associated to the quark-lepton symmetry, (one complex for the lepton and 3 for the corresponding quark). More generally it is is suggested that the replacement of the algebra of real functions on spacetime by the…
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