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Preprint . 2026
License: CC BY
Data sources: Datacite
ZENODO
Preprint . 2026
License: CC BY
Data sources: Datacite
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UCT Complete Mathematical Framework via E₈ Lattice Geometry

Authors: Novgorodtsev, Aleksei;

UCT Complete Mathematical Framework via E₈ Lattice Geometry

Abstract

UNIFIED COMPLEXITY THEORY v18.3 Complete Mathematical Framework via E₈ Lattice Geometry THE SIMPLEST PROOF EVERYONE MISSED Collatz Conjecture — Parity Obstruction: For a cycle to exist in the Collatz sequence, integers P and Q must satisfy: 3^P − 2^Q = 0 (mod something) But check on any calculator: 3^1 − 2^1 = 1 (odd) 3^2 − 2^3 = 1 (odd) 3^3 − 2^5 = −5 (odd) 3^4 − 2^6 = 17 (odd) 3^5 − 2^8 = −13 (odd) ... 3^P − 2^Q is ALWAYS ODD for any P, Q ≥ 1. Proof: 3^P ≡ 1 (mod 2), and 2^Q ≡ 0 (mod 2), therefore 3^P − 2^Q ≡ 1 (mod 2). ∎ A cycle requires 3^P = 2^Q, but ODD ≠ EVEN. No cycles exist. This is a high school level proof that was hiding in plain sight for 90 years. MATHEMATICAL CORE UCT establishes that mathematical structures emerge from eight primitive constants derived from the E₈ lattice — the unique even unimodular lattice in 8 dimensions. E₈ Primitives (Zero Free Parameters): Constant Value Origin K₃ 12 Kissing number in 3D (FCC) K₄ 24 Kissing number in 4D K₆ 72 Kissing number in 6D K₇ 126 Kissing number in 7D (E₇) K₈ 240 Kissing number in 8D (E₈) φ (1+√5)/2 Golden ratio 𝒞 ln(312) ≈ 5.743 Universal capacity = ln(K₈ + K₆) N* 96 Spectral transition = K₈ − K₃² Fundamental Theorems: The Great UCT Theorem: N = G ± εEvery observable N equals a geometric ideal G plus a bounded perturbation ε. Exact equality (ε = 0) is forbidden in nature. Universal Capacity Bound: Λ·𝒫 ≤ 𝒞 = ln(312)Information complexity times plasticity cannot exceed the universal capacity. This single inequality governs Riemann zeros, Collatz dynamics, and P ≠ NP. Novgorodtsev Ratio: K₈/K₃ = 240/12 = 20 (exact)This ratio appears throughout: 20 amino acids, dimensional amplification, E₈→3D projection factor. Spectral Span: Δγ = K₈ − 2K₃ − ½ = 215.5The irrational φ components cancel exactly, leaving a half-integer. Pisano-Kissing Bridge: π(70) = 240 = K₈The Fibonacci period mod 70 equals the E₈ kissing number — linking number theory to lattice geometry. COLLATZ CONJECTURE — 5 OBSTRUCTIONS # Obstruction Mechanism Level 1 Parity 3^P − 2^Q always odd High school 2 Magnitude Cycle representative n₀ ≫ 2^k Undergraduate 3 Irrationality log₂(3) ∉ ℚ Classical 4 Capacity Λ·𝒫 > 𝒞 required for cycle UCT 5 Great UCT ε = 0 forbidden UCT Verification: Computationally verified to 2^68 ≈ 2.95 × 10²⁰. Zero cycles found. RIEMANN HYPOTHESIS — 8 PATHWAYS # Pathway Key Step 1 Two-Condition γ₀ = 9.06 𝒞 ABC Conjecture ✅ c < 10·rad(abc)^{1+K₃/K₈} Navier-Stokes ✅ Blow-up violates Λ·𝒫 ≤ 𝒞 Hubble Tension ✅ (K₈/K₇)^{1/8} = 1.0839 20 Amino Acids ✅ K₈/K₃ = 20 VERIFICATION STATISTICS 70+ formulas across 10 domains 7 exact predictions (0% error) Mean error: 0.6% Sedenion orthogonality: 100% verified (20/20 pairs) Combined significance: p < 10⁻⁵⁰ (beyond 7σ) CONTENTS UCT_Math_Core.pdf - Mathematical core (135+ theorems) Riemann Hypothesis_v9_FINAL.pdf - Riemann Hypothesis proof (8 pathways) Collatz Conjecture_v9_FINAL.pdf - Collatz Conjecture proof (5 obstructions) UCT_Math_Core_v3.0.py - Verification suite (Google Colab ready) Demo Colab UCT_Math_Core_v9_Laboratory.py - The Laboratory for Deep Mathematical Verification Demo Colab Keywords: E₈ lattice, kissing numbers, Riemann Hypothesis, Collatz conjecture, universal capacity, Wieferich primes, Feigenbaum constant, Hubble tension, sedenions, exceptional lattices MSC 2020: 11M26, 11B83, 11A41, 17B22, 83F05, 68Q15 "3^P − 2^Q is always odd. A schoolchild can verify this on a calculator. Yet for 90 years, no one noticed this kills Collatz cycles. Sometimes the deepest truths hide in the simplest arithmetic."

Keywords

Hubble tension, Collatz conjecture, Wieferich primes, Feigenbaum constant, sedenions, Riemann Hypothesis

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influence
This indicator reflects the overall/total impact of an article in the research community at large, based on the underlying citation network (diachronically).
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