Parameter-Free Derivation of π‘šπ‘/π‘šπ‘’ and 𝛼 from Spectral Geometry on 𝑇5 with SU(3)

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Authors: Martin Wolfgang Le Borgne
Cited by: 2

Abstract

We derive the proton-to-electron mass ratio and the fine-structure constant from a single geometric structure β€” with zero free parameters. Main Results m_p/m_e = 6π⁡(1 + Ξ±Β²/√8) = 1836.15268 β€” accuracy: 0.002 ppm (CODATA: 1836.15267) βˆ’2 ln Ξ± = π² βˆ’ 4Ξ± + cβ‚‚Ξ±Β² β€” accuracy: 0.009 ppm (CODATA: Ξ± = 1/137.036) Ξ”m(nβˆ’p)/m_e = 8/Ο€ βˆ’ 2Ξ± β€” neutron-proton mass splitting (354 ppm) Framework The computation uses spectral geometry on the isotropic five-torus T⁡ with SU(3) gauge field. The Hosotani mechanism stabilizes the Wilson-line vacuum at a = 1/2 (Ramond boundary conditions). The instanton action Sβ‚€ = π² and the Weyl group order |W(SU(3))| = 6 combine to give the exact identity 6π⁡ via the Weyl integration formula. No parameters are adjusted β€” all inputs are topological or group-theoretic. Proof Architecture: 4-Tier Classification (26 results, no open problems) Tier 0 (9 results): Known, cited β€” Hosotani mechanism, Georgi-Glashow sinΒ²ΞΈ_W = 3/8, Epstein zeta, Clifford algebra d_S = 4, Hurwitz ΞΆ', quark charges Ξ£QΒ² = 1, R-independence, π⁷-bridge algebra. Tier 0+1 (5 results): Known methods, our specific application β€” Ramond BC from Sβ‚…-isotropy, cβ‚‚ = 5/2 ln 2 βˆ’ 3/8, Gilkey-Seeley G_e/G_p = 6, Atiyah-Singer ind(D_p) = 6, the Matching Principle (Connes 1994). Tier 1 (12 results): Genuinely new, proved here β€” Weyl identity 6π⁡, d = 5 uniqueness theorem, bootstrap uniqueness, c₃ independent formula (6 ppm), Ξ΄_EW = 0 (exact), spectral entanglement identity, gap decomposition theorem, Weyl orbit theorem, Ξ²* = 13.6 analytical, 1/√8 from 3 routes, toy model d = 1…5, GPU verification to 50 digits. Tier 2/3: None remaining. All formerly open problems resolved in v55. 33 Parameter-Free Consequences (V1–V33) Including: V1: m_p/m_e = 1836.15268 (0.002 ppm) βœ“ V3: Ξ± = 1/137.036 (0.009 ppm) βœ“ V22: ΞΈ_QCD = 0 exactly (no axion needed) β€” testable via nEDM V23: Proton stable (Ο„ > 10¹⁰⁰⁰ yr) β€” testable at Hyper-K V30: N_gen = N_c = 3 βœ“ V31: Neutrinos are Dirac particles β€” neutrinoless double beta decay (0Ξ½Ξ²Ξ²) is FORBIDDEN. Testable at LEGEND/nEXO/CUPID (2027–2028). A single 0Ξ½Ξ²Ξ² event would falsify SFST. V32: Ξ£m_Ξ½ β‰ˆ 3m_e Ξ±Β² β‰ˆ 0.08 eV β€” within Planck/KATRIN window Standard Physics as Limits Maxwell equations and Einstein equations emerge as Kaluza-Klein zero-mode reductions (Tier 0). The Weinberg angle sinΒ²ΞΈ_W = 3/8 at the compactification scale reproduces the Georgi-Glashow (1974) prediction. Known Limitations (stated explicitly) The Matching Principle (det'/det' β†’ m_p/m_e) is Tier 0+1: standard method (Connes 1994), not derived from first principles for this specific bundle. Lepton mass hierarchy (ΞΌ, Ο„) not predicted. Absolute energy scale (R in Planck units) not determined. Computational Reproducibility 27 numbered Python scripts (Tier 0/0+1/1/Util), all executable with pip install mpmath numpy. Full repository: github.com/SFST-2026/Spectral-Geometry Package Contents Main paper (34 pages, complete step-by-step derivation in Appendix A) Supplement (55 pages, 20 appendices Z1–Z20) Reviewer roadmap (8 pages, 5 anticipated questions with answers) 27 Python scripts + results + data + figures

Fields of Study & Subjects

Quantum Chromodynamics and Particle Interactions Particle physics theoretical and experimental studies International Science and Diplomacy

Publication details

Journal / source
Zenodo (CERN European Organization for Nuclear Research)
Publication date
23 March 2026
Language
EN
Document type
Preprint