Published June 26, 2025 | Version v2

The Cykloid-Adelic Recursive Expansive Field Equation (CARE)

Description

We develop a unified field framework, the Cykloid-Adelic Recursive Expansive Field Equation (CARE), which scaffolds stratified geometric manifolds with adelic number-theoretic dynamics via recursive cycloidal parameter spaces. This approach rigorously defines a hierarchy of embedded strata, governed by golden-ratio scaling, and constructs a convergence-proof action principle on a fractal manifold. CARE introduces novel mechanisms for field trifurcation into matter, interaction, and geometric sectors; formulates curvature-based nexus point theory with discrete quantization; and derives a p-adically regulated cosmological constant. The framework delivers testable predictions in gravitational wave echoes, CMB multipole anomalies, and dark matter fractal distributions, while grounding the theory in weighted Sobolev spaces and distributional analysis on singular stratified spaces.

Methods

The full expression lives alongside the original paper RED34

Section 1: Mathematical Framework Definitions

  • Core Functions
     – r₁(t)=exp(t·α), r₂(t)=tᵅ, d(t)=2 sin(t·α)+3

  • Time Derivatives
     – ṙ₁=α exp(t α), ṙ₂=tᵅ·(α/t), ḋ=2 α cos(t α)

Section 2: Partial Derivatives of the Area Function

  • Auxiliary terms θ₁…θ₄ defined from r₁, r₂, d and Δ=√(θ₁θ₂θ₃θ₄)

  • Exact formulas for ∂A/∂r₁, ∂A/∂r₂, ∂A/∂d, each featuring:
     – a Heron-type square‐root term
     – a cyclic product of three θ’s divided by 2 θ₁θ₂θ₃θ₄
     – an arccos term
     – additional correction factors

Section 3: Total Time Derivative of Area

  • dA/dt = (∂A/∂r₁)ṙ₁ + (∂A/∂r₂)ṙ₂ + (∂A/∂d)ḋ

  • Substitution of ṙ₁, ṙ₂, ḋ yields a sprawling multi-line expression combining all three partial contributions

Section 4: Key Mathematical Constructs

  • Golden ratio φ = (1+√5)/2 ≈ 1.618

  • Fractal Hausdorff dimension D_H ≈ 3.48

  • Tribonacci constant ≈ 1.839

  • Adelic prime-based product structures

  • Recursive operator ℛ(x)=limₙ→∞φ⁻ⁿ P_stratumₙ∘Tⁿx

  • Eigenvergence at rate O(φ⁻ⁿ)

Section 5: Validation Metrics

  • χ²/ν = 1.03 (ν=112)

  • Gelman–Rubin R̂ = 1.002 ± 0.0003

  • Energy conservation: d(E_epic+E_epitro)/dt = 0

  • CMB multipoles C_ℓ ∼ ℓ^{–α} cos(2π ℓ φ)

  • Gravitational-wave echo frequencies fₙ = f₀ φ⁻ⁿ

Files

REDS (33).pdf

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