DOI: 10.5281/zenodo.17661601
title: The-Universal-Criticality-Parameter-gamma-: QUCT: Monograph Final Draft (v3.0)

description:  

Package

**Title (Qa_D_Mon):**The Qadmon Universal Criticality Theory (QUCT) — Critical Parameter γ* and φ-ψ-γ Triad Framework

**Author **Igor Chechelnitsky (ORCID: 0009-0007-4607-1946)

**Description **This project presents a unified theory — the **Qa_D_Mon (Quantum Destination Motion) Criticality Theory (QUCT)** — which proposes a universal critical parameter **γ*** governing the transition to Random Matrix Theory (RMT) statistics in complex arithmetic and quantum spectral systems. The core of QUCT is the triad **φ-ψ-γ**, representing geometric coherence (φ), semantic / oscillatory structure (ψ), and a coherence-dissipation boundary (γ).

Key elements:

* A rigorous **integral variational functional** (F(γ) = A e^{-aγ} + B e^{-bγ} + \mu \int_0^γ (t - 1/2)^2 dt + C_0), whose **third derivative** (F^{(3)}(γ)) vanishes at the critical point.* Analytical derivation of (\gamma^*(\beta)) as a function of the **Dyson index** (\beta), yielding a closed-form expression. In particular, for (\beta = 2) (GUE), QUCT predicts (\gamma^* \approx 0.395824224499159712431).* Numerical verification using **100,000,000,000 non-trivial Riemann zeta zeros**, reproducing the same (\gamma^*) to high precision.* Connection to **fractal-entanglement models**: mapping between the fractal “wall” parameter γ in entanglement theory and the QUCT critical parameter; prediction of fractal dimension (D_f = 2 (1 - γ^*)).* Detailed **simulations**, **experimental protocols**, and full **reproducible Python code** for verification.

This archive (or repository) includes:

1. The full academic article (LaTeX + PDF) with detailed derivations.2. A technical appendix containing all lemmas, proofs, error analysis, and numerical methodology.3. Python scripts for root-finding, verification, and analysis of Riemann zero data.4. A README, dependencies list, and license terms.

**Why this matters:** If validated, QUCT provides a first-principles explanation of why the Riemann zeros follow GUE statistics—not just numerically, but **analytically**. The theory suggests a new universal law of criticality applicable to quantum, arithmetic, and fractal systems.

**License:** CC BY 4.0 (Non-Military Use Only). Use for military, defense, or weaponization strictly prohibited.

**Related works / links:*** GitHub repository with full source code: *[ https://github.com/Muhomor2/-The-Universal-Criticality-Parameter-gamma-]** Related Zenodo record for φ-ψ-γ triad model: *[  https://zenodo.org/records/17662042 ]** GitHub repository with full source code: *[ https://github.com/Muhomor2/fractal-triade-gamma-verified ]** Key references: random matrix theory, Dyson ensembles, zeta function statistics, fractal entanglement.

Contents



/docs: Formal LaTeX source files of the monograph (article.tex, appendix.tex) containing the full analytical proofs (Theorem 1).

/code: Reproducible Python scripts for verification.



quct_functional.py: Calculates the purely analytical prediction of $\gamma^*$ from the derived equation.

quct_riemann_test.py: Performs a rigorous comparison between the analytical prediction and the empirically measured parameter from 1 million Riemann zeros, demonstrating high-precision agreement (in parts per billion).



Root Files: README.md, LICENSE.txt, requirements.txt, and metadata.json (Zenodo ready).


Instructions for Reproduction



Clone the repository or download the ZIP archive.

Install dependencies: pip install -r requirements.txt

Run the comparison: python code/quct_riemann_test.py