What question did this study set out to answer?

The research aims to develop a framework that derives the Standard Model's structure from a fundamental axiom using topology.

March 25, 2026Open Access

The Topological Inversion Model (TIM) v7: From Self-Negation to the Standard Model

Key Points

The research aims to develop a framework that derives the Standard Model's structure from a fundamental axiom using topology.
Derivation of the Standard Model gauge group through a logical chain of axioms and theorems.
Proof of the uniqueness of the spatial manifold (RP^3) under given conditions.
Classification of flat gauge bundles on RP^3 for the Standard Model.
Calculation of Casimir energy to explore electroweak symmetry preferences.
Establishment of connections between topological properties and physical parameters.
Derives three spatial dimensions from the self-negation of Absolute Nothing.
Reduces the Standard Model's free parameters from 19 to 18 via topological mass relations.
Quantitative predictions include M* ~ 3.7 TeV and T_c ~ 150-320 GeV for phase transitions.
Demonstrates unbroken electroweak symmetry with sin^2(theta_W) = 1/4 based on topology.
Identifies three irreducible free parameters remaining: alpha_em, Higgs VEV v, and Higgs mass m_H.

Abstract

The Topological Inversion Model (TIM) derives the structure of the Standard Model from a single axiom: the self-negation of Absolute Nothing (//Gaunab), which generates a Z₂ involution. Combined with compactness, orientability, and minimality, this uniquely determines the spatial manifold as RP³ = S³/Z₂ (Theorem 1), deriving three spatial dimensions rather than assuming them. Version 7 supersedes previous versions with major extensions: (i) the complete logical chain from self-negation to the Standard Model gauge group in seven steps, with each step labelled as axiom, theorem, or derived; (ii) an RP³ uniqueness theorem proving that the spatial manifold is the only compact orientable quotient consistent with the foundational Z₂; (iii) classification of flat gauge bundles for GSM = SU (3) x SU (2) x U (1) on RP³, yielding 4 physical Hosotani sectors with vector-like colour automatic in all sectors; (iv) Casimir energy computation showing that the topological vacuum prefers unbroken electroweak symmetry with sin² (thetaW) = 1/4 as the bare ratio, while EWSB is driven by the Higgs potential at Tc ~ 150-320 GeV; (v) resolution of M* = 3689 +/- 200 GeV as a derived matching scale (topology plus SM running), not requiring a separate dynamical mechanism; (vi) closure of the alpha programme through six independent routes, establishing that topology determines ratios while absolute couplings require dynamical input; (vii) identification of the width parameter W on B₃ as the generation quantum number, explaining Ngen = Ncolour = 3 as a topological identity; and (viii) geometric emergence of Z₃ colour structure from degree-3 Hopf preimages on S³. The framework reduces the Standard Model's 19 free parameters to 18 (via the topological mass relation Mᵤ = Md + 3Mₑ) and produces 5 quantitative predictions: M* ~ 3. 7 TeV, Tc ~ 150-320 GeV, R^-1 ~ 150 GeV, sin² (thetaW) = 1/4 (topological), and Casimir vacuum selection of the unbroken electroweak sector. Three irreducible free parameters remain: alphaₑm, the Higgs VEV v, and the Higgs mass mH.

The Topological Inversion Model (TIM) v7: From Self-Negation to the Standard Model

Key Points

Abstract

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