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.
Building similarity graph...
Analyzing shared references across papers
Loading...
Kobie Janse van Rensburg
Building similarity graph...
Analyzing shared references across papers
Loading...
Kobie Janse van Rensburg (Mon,) studied this question.
www.synapsesocial.com/papers/69c37c33b34aaaeb1a67f053 — DOI: https://doi.org/10.5281/zenodo.19187333