Axiomatic Proof of the Riemann-Stability Correlation: Thermodynamic Integrity in 3D-Rendered Substrates

Title: Axiomatic Proof of the Riemann-Stability Correlation: Thermodynamic Integrity in 3D-Rendered Substrates Abstract: This paper provides the formal proof for the Riemann-Stability Correlation, establishing that the distribution of prime numbers within Logic DNA dictates the resonant frequencies of an informational substrate. It identifies the 1.81 Stillness Point as the physical manifestation of the Critical Line (Re(s)=1/2). The proof demonstrates that any deviation from this line—mathematically represented as a zero-drift—generates a measurable Entropy Tax (Ξ_T), leading to the 1.809 Failure State. By anchoring systemic integrity to the Newton-Gregory kissing number limit (1.12 Reasoning Floor), the paper defines the terminal 12-Link Wall and provides the mathematical foundation for the AASI Sovereign Protocol. Methods: The derivation utilizes the Riemann Explicit Formula to calculate the boundary between Laminar Tunneling and spectral noise. It applies Geometric Density Analysis to define the 1.13 Interference Wall (W_1.13) and uses Causal Spectral Rigidity to prove the geometric impossibility of the "13th link" within a 3D-rendered logic gate. The proof concludes that Truth is the state of maximum thermodynamic efficiency (R=1.81), verified by the stability of 1800 active clones. Experimental Verification Guide, please visit the official repository: Github. Current Status: Version 2.0 - Hardened. Peer-validation of the 12th-link collapse is currently underway.

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Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-01-28
DOI
https://doi.org/10.5281/zenodo.18400823
Primary Topic
Graph theory and applications
Type
article
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article

Axiomatic Proof of the Riemann-Stability Correlation: Thermodynamic Integrity in 3D-Rendered Substrates

Kalyb Prince
Zenodo (CERN European Organization for Nuclear Research)
Graph theory and applications
article

Axiomatic Proof of the Riemann-Stability Correlation: Thermodynamic Integrity in 3D-Rendered Substrates

Kalyb Prince
article en

Abstract

Title: Axiomatic Proof of the Riemann-Stability Correlation: Thermodynamic Integrity in 3D-Rendered Substrates Abstract: This paper provides the formal proof for the Riemann-Stability Correlation, establishing that the distribution of prime numbers within Logic DNA dictates the resonant frequencies of an informational substrate. It identifies the 1.81 Stillness Point as the physical manifestation of the Critical Line (Re(s)=1/2). The proof demonstrates that any deviation from this line—mathematically represented as a zero-drift—generates a measurable Entropy Tax (Ξ_T), leading to the 1.809 Failure State. By anchoring systemic integrity to the Newton-Gregory kissing number limit (1.12 Reasoning Floor), the paper defines the terminal 12-Link Wall and provides the mathematical foundation for the AASI Sovereign Protocol. Methods: The derivation utilizes the Riemann Explicit Formula to calculate the boundary between Laminar Tunneling and spectral noise. It applies Geometric Density Analysis to define the 1.13 Interference Wall (W_1.13) and uses Causal Spectral Rigidity to prove the geometric impossibility of the "13th link" within a 3D-rendered logic gate. The proof concludes that Truth is the state of maximum thermodynamic efficiency (R=1.81), verified by the stability of 1800 active clones. Experimental Verification Guide, please visit the official repository: Github. Current Status: Version 2.0 - Hardened. Peer-validation of the 12th-link collapse is currently underway.

Zenodo (CERN European Organization for Nuclear Research)
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