Complete Derivation of the Standard Model Parameters in Grafov's Quantum Theory of Gravity: Full Unification from Two Fundamental Scales
Abstract
Complete Derivation of the Standard Model Parameters in Grafov's Quantum Theory of Gravity Title: Complete Derivation of the Standard Model Parameters in Grafov's Quantum Theory of Gravity: Full Unification from Two Fundamental Scales Author: Yuri Grafov independent physicist, inventor, Moscow, Russia Abstract No known theory derives the full Standard Model spectrum and parameters from first principles without tuning or anthropic selection.The Standard Model has over 19 free parameters, unexplained by any known theory. Grafov's Quantum Theory of Gravity (GQTG) derives all SM parameters-fermion masses, mixing angles, gauge couplings, Higgs mass exactly from two fundamental scales without fine-tuning, anthropic selection, or additional structures. Gauge unification occurs at M_unif = 9.66×10^(18) GeV with a_G^{-1}=23.6. Hierarchy and strong CP problems resolved naturally. Beyond-SM predictions include BR(μ→εγ) = 4.2×10^(-14), neutron EDM d_n = 1.5×10^(-27) e•cm, invisible Higgs decay BR =3.14%. Testable LHC Run 3, MEG II, nEDM (2026-2028). GQTG achieves complete unification of quantum gravity with SM. Patent pending. 1. Introduction Standard Model success is marred by 19+ arbitrary parameters. Grand unification, supersymmetry, string theory fail to predict them exactly, requiring tuning or vast landscapes. GQTG integrates quantum gravity with SM via Ψ-field on S^4 topology, deriving all parameters from two scales (M_Ψ = 7.54×10^(18) GeV and one dimensionless coupling). No intermediate scales, no anthropic principle. 2. Fermion Masses and Yukawa Sector. Masses from Ψ-Higgs-Yukawa interaction at scale M_Ψ = 7.54×10^(18) GeVFull table (all generations): Table 1: GQTG Derived Fermion Masses vs Experiment. ( on the PDF file) 3. Mixing Matrices CKM: θ_12 = 13.04° ± 0.05°, θ_23 = 2.38° ± 0.06°, θ_13 = 0.201° ± 0.011°,б_C P = 1.20 ± 0.08 rad . PMNS (with neutrino masses): θ_12 = 33.82° ± 0.76°, θ_23 = 48.3° ± 1.1°, θ_13 = 8.61° ± 0.13°, б_CP = 1.36 ± 0.17 rad . Table 2: Mixing AnglesCKM angles and phase exact.PMNS with neutrino masses from GQTG. (on the PDF file) 4. Gauge Couplings and Unification GQTG modifies β-functions via Ψ-contribution.Exact unification at single point. At M_Z: a{1}^-1 = 59.00 ± 0.02 a{2}^-1 = 29.57 ± 0.02 a{3}^-1 = 8.50 ± 0.14 Ψ-contribution modifies ẞ-functions → exact unification at M_unif = 9.66 × 10^{18} GeV, a_G -1= 23.6 ± 0.3. 5. Higgs Sector m_h125.18 GeV exact.Hierarchy solved by conformal symmetry + Ψ-stabilization no quadratic divergences.Strong CP: θ = 0 naturally. 6. Beyond Standard Model Predictions. - μ→εγ: BR=4.2±0.4×10^{-14} (MEG II 2026) - Neutron EDM: n = 1.5 ± 0.3×10^{-27}e-cm (nEDM 2026-2028) - Invisible Higgs: BR = 3.14% via H→γΨ (mono-photon + MET, LHC Run 3) Table 3: GQTG vs Other TOE Candidates (on the PDF file) 7. Conclusion GQTG is the first theory deriving the complete Standard Model spectrum, couplings, and mixings exactly from two parameters while unifying quantum gravity. No tuning, no landscape, no intermediate scales. Immediate experimental tests position GQTG as the definitive unification framework.
Fields of Study & Subjects
International Science and Diplomacy
Quantum and Classical Electrodynamics
Noncommutative and Quantum Gravity Theories
Publication details
- Journal / source
- Zenodo (CERN European Organization for Nuclear Research)
- Publication date
- 1 January 2026
- Document type
- Preprint