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ZENODO
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Preprint . 2025
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ZENODO
Preprint . 2025
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The Fibonacci Unified Field Framework (FUFF):

Fibonacci Unified Field Framework: A Flavor-Symmetry Origin of the Golden Ratio in Particle Masses and Mixings
Authors: Kafi, Said;

The Fibonacci Unified Field Framework (FUFF):

Abstract

Next Paper V2 Unified Manuscript: Fibonacci Unified Field Framework (FUFF V2.0)Abstract(To be written finally after completing the full integration, highlighting: the emergence of the golden ratio ϕ from the RG flow, solution of the CKM problem via the double seesaw, precise prediction of δ_CP, and comparisons with experimental data.)1. IntroductionOverview of the Standard Model (SM) flavor puzzle.Brief review of GUT models and family symmetries.Highlighting the limitations of previous models (importance of A4, vacuum alignment issues, hierarchy, δ_CP).Introducing FUFF as a unified framework combining:Emergence of ϕ as an RG fixed point,Double seesaw mechanism for CKM,Precise predictions for matrices and phases.Goal of the paper: To merge the solid theoretical structure (V2) with previous phenomenology (V1) to produce a complete, testable model.2. The Model: SM × A4 Flavor Symmetry2.1 Symmetry and Field ContentDescription of the SM extension by A4.Complete table of fields, their representations under GSM × A4, and their roles (as in V2).Inclusion of vector-like fields, flavons, and ν_R to support double seesaw and neutrino masses.2.2 Lagrangian and Yukawa CouplingsFull presentation of the superpotential: .Explicit formulation of Yukawa matrices generated from flavon VEVs.Linking couplings to generate the necessary off-diagonal terms for CKM.2.3 Spontaneous Flavor Symmetry Breaking2.3.1 Vacuum AlignmentConditions from and the solution generating ϕ ratios in flavon VEVs.2.3.2 Hierarchical Scale StructureDescription of the ladder of scales: Connection of this structure with the RG fixed point (integrating the idea from V1).2.3.3 Effective Yukawa TexturesExtraction of Yukawa matrices as detailed in V2, emphasizing the ϕ^-n factors.3. Renormalization Group Analysis3.1 Beta Functions from First PrinciplesDerivation of using the background field method.Contributions from gauge, Yukawa, flavon exchanges, and threshold effects.3.2 Hierarchical Scale Structure and Nearest-Neighbor CouplingsDescription of nearest-neighbor interactions in the RG flow.Linking these interactions to the logarithmic geometry of the ladder of forces.3.3 Fixed Point EquationPresentation of the equation: .Reporting the empirical values as in V1.0 and V2.0: .4. Mathematical Proof of ϕ Emergence4.1 Uniqueness and Stability AnalysisProof that → existence of a unique root.Use of the Intermediate Value Theorem to guarantee root existence.4.2 Infrared AttractivenessLinearization around .Proof of IR-attractiveness: as .5. Lepton Sector5.1 Charged Lepton MassesYukawa matrices derived from flavon VEVs.Mass ratios: .5.2 Neutrino Masses and PMNS MatrixType-I seesaw with ν_R.Predicted mixing angles close to tribimaximal with small corrections from flavon structure.6. Quark Sector and the Double Seesaw Mechanism6.1 Yukawa Textures from A4 ChargesPresentation of Yukawa matrices according to A4 charges.6.2 Double Seesaw ImplementationIntegration of heavy vector-like quarks.Mechanism for reducing off-diagonal elements for .6.3 Effective Quark Mass MatricesResulting mass matrices after integration, ready for comparison with experimental data.7. CKM Matrix: Exact Results and Predictions7.1 Analytic Expressions for Mixing AnglesRelation between Yukawa matrices and .7.2 Numerical Predictions vs. Experimental DataTable of the full CKM matrix, comparison: prediction vs. PDG.Emphasizing modeling accuracy: most elements excellent, some within specified σ.7.3 CP Violation: δ_CP ≈ 86.3°Mention of 3.9σ tension with current data.Highlighting this value as a critical test of the model.8. Error Analysis and Numerical Implementation8.1 Monte Carlo Sampling of InputsDescription of sampling parameters and propagation of uncertainties.8.2 Uncertainties and CorrelationsPresentation of results with ± errors, effects of threshold variations.9. Phenomenological Predictions and Experimental Tests9.1 Collider Signatures (LHC, Belle II)Higgs coupling deviations, new scalar .9.2 Rare Decays and Lepton Flavor Violation9.3 GUT Scale Predictions10. Conclusion and OutlookSummary: emergence of ϕ, CKM solution via double seesaw, precise predictions, testable model.Future work: higher-loop corrections, refined thresholds, full flavor observables.AppendicesA. Group Theory of A4: CG coefficients, multiplication rules.B. Detailed Beta Function Calculations: loops, flavon contributions, threshold matching.ReferencesIntegration of V1 and V2 references, plus any new necessary references.

 foundation of the Fibonacci Unified Field Framework (FUFF), including rigorous proofs of the emergence of the golden ratio ϕ from renormalization group fixed points. We provide explicit Yukawa matrix structures, analyze the limit of vanishing logarithmic terms, and derive all predictions with comprehensive error analysis. The theory is formulated with full mathematical rigor and physical consistency. Furthermore, we resolve the longstanding CKM matrix challenge by introducing a double seesaw mechanism in the quark sector that accurately predicts all nine CKM matrix elements, providing a sharp, falsifiable prediction for the CP-violating phase δCP

Keywords

ZPG DHOST, Like fermions flavons, Collider signatur, Lepton Masses, Fibonacci, Vaccum Textures, Hierachical Scalture, Uncertainly analysis phenomenology preditions, Fixed Point, Monte Cralo, Yakawa textures Vecror, EKS Dhost, Flavor symmetry Breaking, Grand unified Theory cut, Seesaw, Double Seesaw, Cp Violation, Inified Field Thory, CKM Matrix, Rare decay, Golden Ratio, Flavor Physics, Infraed attraetivness, Neutrino mixing, Victor, Renormalization groupe

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selected citations
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This is an alternative to the "Influence" indicator, which also reflects the overall/total impact of an article in the research community at large, based on the underlying citation network (diachronically).
BIP!Citations provided by BIP!
popularity
This indicator reflects the "current" impact/attention (the "hype") of an article in the research community at large, based on the underlying citation network.
BIP!Popularity provided by BIP!
influence
This indicator reflects the overall/total impact of an article in the research community at large, based on the underlying citation network (diachronically).
BIP!Influence provided by BIP!
impulse
This indicator reflects the initial momentum of an article directly after its publication, based on the underlying citation network.
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