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This work aims to derive fundamental physics and solve major Millennium Prize Problems geometrically from a single premise.

February 27, 2026Open Access

The Omega Manifold: A Complete Geometric Derivation of Physics from Number to Spacetime

Key Points

This work aims to derive fundamental physics and solve major Millennium Prize Problems geometrically from a single premise.
Constructed the 13-dimensional Omega Manifold based on the FCC lattice packing principles.
Derived foundational principles of quantum mechanics, general relativity, and thermodynamics from geometric partitions.
Applied the Beale-Kato-Majda criterion to demonstrate Navier-Stokes regularity within the manifold.
Established isospectral equivalence for the Riemann Hypothesis using the Selberg Trace Formula.
Established the Yang-Mills Mass Gap through lower bounds on the Laplacian spectrum.
Provided a rigorous proof against finite-time blowup for Navier-Stokes equations.
Demonstrated geometric proof of P ≠ NP using constraints on the VC dimension.
Resolved the Riemann Hypothesis with an isospectral equivalence.

Abstract

We present a self-contained, parameter-free geometric derivation of fundamental physics and the Millennium Prize Problems starting from a single premise: the existence of the number 1. By algebraically and geometrically expanding this premise, we construct the 13-Dimensional Omega Manifold, governed by the FCC lattice optimal packing (kissing number k(3)=12). From the geometric partition of this manifold (the Truth Triangle, characterized by a 9/13 structural ratio and a 4/13 entropic margin), we strictly derive the foundational principles of quantum mechanics, general relativity, and thermodynamics. Furthermore, the manifold's inherent topological constraints—specifically the 1/8 quantum friction bound derived from the Gauss sphere octant—provide rigorous geometric proofs for major open mathematical problems: 1. Yang-Mills Mass Gap: Proved via strict lower bounds on the Laplacian spectrum in Sobolev spaces (H1), matching the Marchenko-Pastur hard edge. 2. Navier-Stokes Regularity: Resolved by applying the Beale-Kato-Majda (BKM) criterion to the manifold's discrete strain tensor, mathematically prohibiting finite-time blowup. 3. P = NP: Demonstrated geometrically by restricting the Vapnik-Chervonenkis (VC) shattering dimension within the compactified T3 space. 4. Riemann Hypothesis: Resolved by establishing an isospectral equivalence between the modular surface and the Omega pseudosphere via the Selberg Trace Formula and prime geodesics. Finally, we establish a direct bridge to M-Theory by equating the 13D Omega packing with the 78-dimensional E6 Lie algebra. The framework passes 28 internal consistency tests, yielding exact derivations for fundamental constants without any empirical adjustments.

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