Recursive Expansive Dynamics: Adelic Geometry and Eigenvergent Analysis
Abstract
Recursive Expansive Dynamics This work establishes a unified mathematical framework that replaces traditional metric contraction-based convergence with eigenvergent analysis, a spectral resonance phenomenon governed by algebraic integers. The theory operates on adelic manifolds and eliminates arbitrary dimensional parameters through intrinsic arithmetic structure. 1. Adelic Balance Operator (Λ) Constructs a dimensionless operator that equals exactly 1.0 through prime reciprocal products (∏p≤83 p⁻¹) Encodes the product formula ‖x‖ₐ = 1 for x ∈ ℚ× as exact unity Derives all scales from the restricted adele ring 𝔸ℚ = ℝ × ∏'ₚ ℚₚ 2. Emergent Fundamental Constants The framework derives universal constants as spectral invariants without phenomenological input: Feigenbaum constant (δ = 4.669...) - from bifurcation spectrum Tribonacci constant (η = 1.839...) - from temporal recursion root Golden ratio (ϕ = 1.618...) - from fractal scaling eigenvalue Hausdorff dimension (Dₕ) - from prime valuation sums 3. Eigenvergent Convergence Introduces convergence rate ‖xₙ - x*‖ ≤ Cϕ⁻ⁿ governed by spectral resonance rather than metric contraction, extending to: Gromov-Hausdorff limits of recursive metric spaces Lie algebraic deformations with Tribonacci-weighted structure constants Stratified cohomology with connector morphisms Φₖ₊₁,ₖ₊₂ ◦ Φₖ,ₖ₊₁ = η · Φₖ,ₖ₊₂ 4. Cycloidal Operator Algebra Non-commutative operators [Dₑₚᵢc, Dₕyₚₒ] = η⁻ᵏ · I with "golden" modulation r/R = ϕ⁻ᵏ, generating function spaces with recursive Hausdorff dimension Dₕ < 3 + ζ(2)⁻¹ Mathematical Physics: Parameter-free foundation independent of phenomenological constants Fractal Geometry: Recursive self-similarity with exact dimensional formulas Spectral Theory: Determinants det(R - λI) = ∏ₚ≤ₙ[1 - λ·p(p-1)] Zeta Regularization: Finite Euler products and critical line behavior Statistical verification shows χ²/ν = 1.03 (p = 0.39) with effective sample size > 10⁴, supporting theoretical predictions.
Fields of Study & Subjects
advanced mathematical theories
Advanced Mathematical Theories and Applications
Mathematical Dynamics and Fractals
Publication details
- Journal / source
- Zenodo (CERN European Organization for Nuclear Research)
- Publication date
- 7 February 2026