Unified Number Framework: Complete Mathematical Derivation of Physical Constants via Spacelogy-Cosmology Unification - TOE

Read full text
Authors: Gemunu Abay
Cited by: 0

Abstract

TDT-UNF: The Hyperbolic Geometric Unification of Physics Extended Abstract Core Discovery: We present a complete mathematical framework that derives all fundamental physics—Einstein's equations, the Standard Model, and their constants—from a single geometric first principle: an autodidactic cosmos unfolding on a hyperbolic membrane. 1. The Fundamental Architecture The universe is modeled as a Continuous Hyperbolic Twisted Double Torus (TDT)—a 6D hyperbolic surface called the Equatorial Membrane (EM). This membrane evolves along a "distinction density" parameter b from primordial unity ( b = 1 ) to maximal distinction ( b \to \infty ). Key Insight: Hyperbolic (negatively curved) geometry is not merely convenient but mathematically necessary because: · Exponential distinction growth ( b(\tau) follows an exponential geodesic)· Optimal packing of the fundamental topological quanta (ω=1 vortices labeled by primes)· Natural implementation of holography (AdS/CFT correspondence as architecture, not conjecture) 2. Derivation of Physics Einstein's Equations: Emerge as the elasticity equations of the hyperbolic membrane's induced metric at its 3+1D conformal boundary. The cosmological constant \Lambda is the residual negative curvature memory of the hyperbolic genesis. The Standard Model: The gauge group U(1) \times SU(2) \times SU(3) crystallizes at critical b -values: · b = e \approx 2.718 : U(1) from twist stabilization· b = \varphi \approx 1.618 : SU(2) from Fibonacci packing optimization· b = \pi \approx 3.142 : SU(3) from hyperbolic cycle completion Particle masses emerge as eigenvalues of the hyperbolic Laplacian, with spectra tied to prime number gaps. 3. Prediction of Fundamental Constants

Fields of Study & Subjects

Relativity and Gravitational Theory Advanced Mathematical Theories and Applications Cosmology and Gravitation Theories

Publication details

Journal / source
Zenodo (CERN European Organization for Nuclear Research)
Publication date
10 February 2026
Language
EN