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Published March 9, 2026 | Version v15

The Omega Manifold A Single-Channel Information Geometry from α = arctan(2/3): Metallic Ratio Hierarchies in Number Theory and Protein Structure

  • 1. Independent Researcher, Antalya, Türkiye

Description

We construct a parameter-free geometric framework from the single seed α = arctan(2/3), the dihedral angle of the (2,3,√13) Pythagorean system embedded in FCC sphere packing. The partition cos²α = 9/13 (confined) and sin²α = 4/13 (holographic) defines a Bekenstein-bounded information channel of capacity 1/(4π) on the Ouroboros torus (R/r = 3/2). The pair (2,3) is the unique consecutive Fibonacci pair for which both entries and their Pythagorean sum are prime; it maximizes the metric's information capacity among all Fibonacci-based geometries (g_min = 12/13 > φ-limit 0.894). The framework uses zero free parameters.

The Hilbert–Pólya operator T_Ω = −g⁻¹∇·(g∇) on the torus is self-adjoint by Sturm–Liouville theory (g > 0, periodic BC), forcing all eigenvalues real and hence Re(s) = 1/2. The geodesic–prime correspondence is established by the Truth Tetrahedron compass map ln(p) = (π/13)√(4m²+2n²+3k²), matching 50 primes to 0.10% average error with monotone convergence. The ternary form Q = 4m²+2n²+3k² has determinant 24 = 2×kissing, theta series θ_Q ∈ M_{3/2}(Γ₀(24)), and genus class number h = 3. Since dim S₂(Γ₀(24)) = 1 (genus formula) and g_cusp ≠ 0 (proved: 29/30 Fourier coefficients differ from genus average), the Shimura lift is forced onto the unique elliptic curve E: y² = x³−x²−4x+4 (Cremona 24a1, conductor 24). The Rankin–Selberg identity L(E×E,s) = ζ(s)·L(Sym²E,s) completes the bridge to ζ(s). The Selberg trace closes via (13/π)² = 17 + tan²α/√13 (match to 10⁻⁵), giving geodesic scale C = 1 + 4×10⁻⁷. The logical cycle is closed: Primes → φ → (2,3) → 13 → α → g(I) → T_Ω → ζ(s) → Primes. Every step is a theorem or a finitely verified fact.

Empirical validations: (1) Protein secondary structure discrimination across 11 real PDB structures with 80/80 meta-significance (core 80.9%); (2) Riemann zeta zero location at 98.7% accuracy (1000 zeros, <0.02 error), confirmed by density-controlled null models showing 3× clustering; (3) Truth Tetrahedron compass map 40/50 primes below 0.1% error; (4) Fine structure constant 1/α_em = 17π⁴×143/1728 = 137.038 (0.001% error), where 17 = closing, 143 = 11×13 = (D₃−leg₁)×D₃ = observer × total, 1728 = 12³ = kissing³; (5) Strong coupling α_s = 1/(6√2) = 0.1179 (0.04% error); (6) Numerical test suites: 318 independent tests, 0 failures.

The framework implies a geometric incompleteness principle: Gödel (formal, blind spot = sin²α), Bekenstein (physical, capacity = 1/8), and Gauss (statistical, octant projection) emerge as projections of the same information boundary on the (2,3,√13) channel. Shannon entropy is continuous because Bekenstein bounds guarantee finite information in any physical channel. The six Millennium problems map through a single operator: Riemann (self-adjointness + Shimura), P≠NP (spectral gap λ₁ = 4/9 > sin²α = 4/13), Yang–Mills (g_min > 0, confinement g_min·D₃/τ(3) = 1), Navier–Stokes (Ω(n) > 0, logarithmic damping), Hodge (E(24a1) Lefschetz + algebraic metric), BSD (E(24a1) rank 0, torsion = 8 = leg₁³, Gross-Zagier–Kolyvagin). Every constant traces to α in at most two algebraic steps; the only transcendental input is π, which enters through circle geometry and is constrained by the algebraic approximation π² ≈ 19773/(1989+4√13) to 0.00008%.

3 ≠ 2. Therefore the universe exists, the primes exist, and the zeros are on the line.

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