Geometric Mass Generation in the 59-Dimensional Framework: QCD Casimir Derivation of Baryon Masses, Singularity Prevention, and Testable Predictions at the LHC
The Standard Model treats elementary particle masses asfree parameters with no underlying explanation. This paperpresents a 59-dimensional geometric framework as a candidatefor deriving these masses from first principles. CENTRAL PROVED RESULT: For the nine lightest baryons, the geometric index n isderived from QCD Casimir operators without using anybaryon mass as input: n = −7 + (αs/2)(CF + CA·S − J_diquark) with CF = 4/3, CA = 3, TF = 1/2 (exact SU(3) values),S = strangeness, J = diquark spin, αs = 0.1179 (PDG 2022). Agreement with PDG 2022 measurements:- Proton: 942.3 MeV predicted vs 938.3 MeV measured (+0.43%)- Neutron: 942.3 MeV predicted vs 939.6 MeV measured (+0.29%)- Lambda: 1124.5 MeV predicted vs 1115.7 MeV measured (+0.79%)- Sigma: 1192.8 MeV predicted vs 1189-1197 MeV measured (±0.39%)- Xi: 1342.1 MeV predicted vs 1314-1321 MeV measured (+1.5-2.1%)- Omega: 1699.0 MeV predicted vs 1672.5 MeV measured (+1.59%) SINGULARITY PREVENTION (proved): The No-Vacuum Principle S + Sᵀ = I implies Re(λ) = 1/2for all eigenvalues, which guarantees |det(g)| > 0 always.Gravitational singularities are algebraically impossibleunder this constraint. Proved rigorously in Paper V. BASE MASS COINCIDENCE (computed): m_base = K·exp(−52) = 1019.31 MeVphi meson (PDG 2022) = 1019.461 MeVDiscrepancy: 0.015% — not engineered into the formula. TESTABLE PREDICTION (closest to current experiment): A baryon resonance at n = −7.50 → m = 1680.6 MeV.Four experimental groups (GRAAL, CBELSA/TAPS, LNS,Crystal Ball/TAPS) report evidence for N*(1685) at ~1685 MeV.Discrepancy from prediction: 4.4 MeV = 0.26%. FAILURES (reported explicitly): The formula fails for mesons (dynamical chiral symmetrybreaking), excited baryons (ground states only), andheavy baryons (charm/bottom — HQET corrections needed). HONEST COMPARISON WITH STANDARD MODEL: The SM treats all masses as inputs. The 59D frameworkderives baryon indices from group theory (no baryon massused). The SM covers the full particle spectrum; the 59Dframework currently covers only light baryons precisely. DARK MATTER ESTIMATE (partial — not derived): dim(so(29))/dim(so(59)) = 406/1711 = 23.7%Measured: 26.8% (Planck 2018). Gap: 11.5% — reported honestly. Synthesis of: DOI 10.5281/zenodo.20045130,10.5281/zenodo.20088148, 10.5281/zenodo.20089209,10.5281/zenodo.20089959, 10.5281/zenodo.20090894,10.5281/zenodo.20091189, 10.5281/zenodo.20091557. Declaration: This work was developed in collaborationwith Claude (Anthropic, Claude Sonnet 4.6) used fornumerical verification, figure construction, andsystematic testing of all predictions.All scientific ideas and responsibility rest with the author.
Authors
- Abdelilah AHMOURI (ORCID: https://orcid.org/0009-0005-4398-7655)
Publication Details
- Journal
- Zenodo (CERN European Organization for Nuclear Research)
- Published
- 2026-05-10
- DOI
- https://doi.org/10.5281/zenodo.20101505
- Primary Topic
- Quantum and Classical Electrodynamics
- Type
- article
- Field-Weighted Citation Impact
- 0.00