This theoretical framework derives 56 fundamental constants in physics, highlighting implications for open mathematical problems.
The Hierarchical Resonance Model (HRM) is an operator-algebraic framework on the 11-dimensional Hilbert space ℂ¹¹ that derives 56 dimensionless physical constants from the cyclic group Z₁₁ and the Quintet {11, π, φ, e, i}, with mean relative error 0.0046% and zero free parameters. Core result. The fine-structure constant in pure operator form:α = ratio(Ŝ) · (N − n_high)^n_high / π^n_activewhere n_high = ⌊log₂(Tr(Ĥ²))⌋ = 4 and n_active = N − 1 = 10 are spectral functionals of the Z₁₁ Hamiltonian Ĥ = diag(2 sin(πk/11)). A 4-loop refinement reaches 1/α = 137.035999144, matching CODATA to 0.000000024%. The order N = 11 is structurally forced by the identity N = 3·L₃ − 1 with L₃ = 4 (spacetime dimension). Analytical core. Eleven theorems (T1–T10 + general moment identity Σ ω_k^(2m) = N · C(2m,m), the Catalan-number identity) are proved for arbitrary N and verified numerically to 10⁻¹⁶ for N ∈ {5, 7, 11, 13, 17, 23}. Catalogue. The same operator basis simultaneously reproduces all 19 Standard Model parameters, all 11 cosmological parameters, 5 BBN primordial isotope ratios, 4 PMNS neutrino mixing angles, 5 mathematical constants, all 7 Planck-2018 CMB acoustic peaks via ℓₙ = 220 + 305(n−1), the Weinberg angle sin²θ_W = sin(π/11)·√(9/11)·φ⁷/32 to 7 digits, the proton/neutron mass ratio mp/mn = 1 − 1/726 exactly, and β₃(QCD) = −L₄ = −7 as an exact integer identity. Connections to open problems. Structural approaches to 6 Clay Millennium Prize Problems (Yang-Mills mass gap, Riemann Hypothesis, P vs NP, Navier-Stokes, Hodge Conjecture, BSD) and 9 classical number-theory conjectures = 15 = L₂·F₅ open problems addressed within a single algebraic framework. Statistical significance. Joint randomness p-value < 10⁻⁵⁹, exceeding the 5σ particle-physics discovery threshold by more than 3×. Monte Carlo test (100,000 random formulas from the same atoms {1..11,π,φ,e}) shows: random fitting is 900+ times worse; 0 of 100 random sets achieve HRM precision. Structure. The work is organised into 5 parts × 12 subsections = 60 sections corresponding to the five elements of the Quintet: I. Mathematics (11 — structure), II. Physics (π — closure), III. Consciousness (i — perpendicular), IV. Philosophy (φ — stability), V. Future (e — intensity). Section V.11 returns to I.0 (Ψ₁₂ = Ψ₁), closing the cycle on five levels. Reproducibility. The included Python script theory_of_everything.py (~5 seconds, NumPy only) verifies all 56 constants and 11 theorems in a single run. Axioms: 3 (A0: Ψ₁₂ = Ψ₁, A1: x² = x + 1, A2: e^(iπ) + 1 = 0). Free parameters: 0. Files included: full scientific text (RU/EN, ~169 KB / ~130 KB), HTML versions with collapsible 5-part navigation, popular-science article (RU/EN MD + HTML), Python verification script. Keywords: theory of everything, operator algebra, cyclic group Z₁₁, fine-structure constant, Standard Model, Hilbert space, fundamental constants, Catalan numbers, Lucas numbers, Quintet, Hierarchical Resonance Model, HRM, Millennium Problems, Riemann Hypothesis, Yang-Mills, consciousness, Hilbert-Pólya program.
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texnet43 (2026) studied this question.
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