Geometric Origin of Fermion Generations in the Timeless LUFT Framework
Abstract
Note (2026-07-02): This record is superseded by the current LUFT fermion-generations paper: doi:10.5281/zenodo.18148314 (resolves to the latest version). This work presents a geometric explanation for the existence of exactly three fermion generations within the Standard Model, formulated in the timeless Λ-Convergence Unified Field Theory (LUFT). Rather than postulating family symmetries or additional dimensions, the framework derives the three-generation structure as an algebraic consequence of three-dimensional configuration space. Within LUFT, spatially integrated log-gradients of the informational density field Φ and the coherence functional Ξ define effective 3×3 real symmetric traceless “shape tensors.” Such tensors possess exactly three real eigenvalues, whose generic non-degeneracy yields three distinct fermion generations without fine-tuning. A polynomial mass operator constructed from two independent shape tensors naturally produces hierarchical spectra when their eigenbases are misaligned, providing a geometric origin for fermion mixing. Topological sectors, classified by an integer winding number N arising from the LUFT field triplet (ν, Φ, Ξ), distinguish fermion types (leptons, up-type quarks, down-type quarks), while generation multiplicity emerges within each sector. A dimensionless shape-chirality parameter governs eigenvalue ratios and is selected by variational stability within each topological class. In the scalar limit, the framework predicts vanishing CP violation, implying that observed CP-violating phases must originate from the 1-form field ν via geometric phase effects. The paper establishes the structural mechanism only and deliberately avoids numerical mass fitting. Its primary result is that the number of fermion generations is fixed by spatial dimensionality rather than empirical input, yielding falsifiable predictions such as the absence of a fourth generation within a given topological sector and trace-based mass sum rules.High Energy Physics – Theory, Mathematical Physics, Quantum Field Theory, Particle Physics Phenomenology, Foundations of Physics
Fields of Study & Subjects
Neutrino Physics Research
Quantum Chromodynamics and Particle Interactions
Particle physics theoretical and experimental studies
Publication details
- Journal / source
- Zenodo (CERN European Organization for Nuclear Research)
- Publication date
- 4 January 2026
- Document type
- Preprint