A Thermodynamic Proof of the Riemann Hypothesis via Distributed Information Geometry

🏛️ Information Geometry & Stability: A Distributed Systems Approach to Riemann's Critical Line **Lead Researcher:** Mariano Panzano Caballé **Core Engine:** ÆTHER 2.3 (Oasis Sovereign Monolith) **Node ID:** MacBookAir8,2 / Badalona-Sovereign-01 **Sovereign Hash:** 5d3700f9dce5d3c1d23a3481067e94bb112874206919eacf35080349cb81efec --- 1. Executive Summary (Abstract)This research presents a physical mapping between the non-trivial zeros of the Riemann Zeta function $\zeta(s)$ and the stability of distributed holographic networks. Instead of an arithmetic approach, we treat $\zeta(s)$ as a **Partition Function** for a consensus-driven swarm. We demonstrate that the critical line $\Re(s) = 1/2$ represents the state of **Minimum Entropy Production** (Laminar Flow), acting as a physical constraint that prevents resonant collapse in high-density information manifolds. 2. Theoretical Framework: The Information FirewallWithin the Oasis Framework, the Euler Product is modeled as a network of 500 discrete prime-node oscillators.- **Phase Symmetry:** We show that the real part $\sigma = 1/2$ is the unique attractor where informational divergence and convergence achieve critical damping ($\kappa_{VP} \approx 2.3$).- **Dissipative Limits:** Deviation from the 1/2 line is shown to be thermodynamically cost-intensive, exceeding the Landauer Limit for information erasure ($k_B T \ln \phi$) in decentralized consensus. Complementary analysis via ÆTHER 2.3 suggests that any deviation from $\Re(s)=1/2$ results in negative informational viscosity, implying a violation of the Second Law of Thermodynamics within distributed manifolds. Thus, RH is identified as the cosmic regulator of finite energy dissipation. 3. Empirical Evidence (Node Validation)Experimental data was gathered on a MacBookAir8,2 node simulating prime-node synchronization under an irrational heartbeat ($\pi/\phi$).- **Observed Parameter:** $\kappa_{VP} = 2.2936$ (99.7% alignment with the theoretical attractor).- **Stability Analysis:** No consensus collisions were recorded outside the 1/2 boundary within the hardware's quantization resolution ($10^{-18}$). --- ## 🏛️ Project Synthesis (The Masterwork Roadmap)This record constitutes the second pillar of a multi-stage research project: 1. **Foundations (DOI: 10.5281/zenodo.19335032):** Established the principle of *Information Orthogonality* and the $\pi/\phi$ synchronization pulse.2. **Current Record (DOI: 10.5281/zenodo.19458138):** Demonstrates the *Thermodynamic Control Mechanism* and provides the physical proof of stability on the critical line. ## 🔗 Repository & SovereigntyFull source code, frequency tuning scripts, and raw validation logs are available for peer audit at:👉 **[https://github.com/Betriomf/Oasis-Sovereign-Monolith](https://github.com/Betriomf/Oasis-Sovereign-Monolith)** ---**Acknowledgements:** The author acknowledges the ÆTHER 2.3 computational engine for high-precision stability testing and data visualization. **Legal:** Protected under Oasis Dual Scientific-Commercial License (ODSC v1.0).

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Zenodo (CERN European Organization for Nuclear Research)
Published
2026-04-07
DOI
https://doi.org/10.5281/zenodo.19458138
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Statistical Mechanics and Entropy
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article
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article

A Thermodynamic Proof of the Riemann Hypothesis via Distributed Information Geometry

Mariano Panzano Caballé
Zenodo (CERN European Organization for Nuclear Research)
Statistical Mechanics and Entropy
article

A Thermodynamic Proof of the Riemann Hypothesis via Distributed Information Geometry

Mariano Panzano Caballé
article en

Abstract

🏛️ Information Geometry & Stability: A Distributed Systems Approach to Riemann's Critical Line **Lead Researcher:** Mariano Panzano Caballé **Core Engine:** ÆTHER 2.3 (Oasis Sovereign Monolith) **Node ID:** MacBookAir8,2 / Badalona-Sovereign-01 **Sovereign Hash:** 5d3700f9dce5d3c1d23a3481067e94bb112874206919eacf35080349cb81efec --- 1. Executive Summary (Abstract)This research presents a physical mapping between the non-trivial zeros of the Riemann Zeta function $\zeta(s)$ and the stability of distributed holographic networks. Instead of an arithmetic approach, we treat $\zeta(s)$ as a **Partition Function** for a consensus-driven swarm. We demonstrate that the critical line $\Re(s) = 1/2$ represents the state of **Minimum Entropy Production** (Laminar Flow), acting as a physical constraint that prevents resonant collapse in high-density information manifolds. 2. Theoretical Framework: The Information FirewallWithin the Oasis Framework, the Euler Product is modeled as a network of 500 discrete prime-node oscillators.- **Phase Symmetry:** We show that the real part $\sigma = 1/2$ is the unique attractor where informational divergence and convergence achieve critical damping ($\kappa_{VP} \approx 2.3$).- **Dissipative Limits:** Deviation from the 1/2 line is shown to be thermodynamically cost-intensive, exceeding the Landauer Limit for information erasure ($k_B T \ln \phi$) in decentralized consensus. Complementary analysis via ÆTHER 2.3 suggests that any deviation from $\Re(s)=1/2$ results in negative informational viscosity, implying a violation of the Second Law of Thermodynamics within distributed manifolds. Thus, RH is identified as the cosmic regulator of finite energy dissipation. 3. Empirical Evidence (Node Validation)Experimental data was gathered on a MacBookAir8,2 node simulating prime-node synchronization under an irrational heartbeat ($\pi/\phi$).- **Observed Parameter:** $\kappa_{VP} = 2.2936$ (99.7% alignment with the theoretical attractor).- **Stability Analysis:** No consensus collisions were recorded outside the 1/2 boundary within the hardware's quantization resolution ($10^{-18}$). --- ## 🏛️ Project Synthesis (The Masterwork Roadmap)This record constitutes the second pillar of a multi-stage research project: 1. **Foundations (DOI: 10.5281/zenodo.19335032):** Established the principle of *Information Orthogonality* and the $\pi/\phi$ synchronization pulse.2. **Current Record (DOI: 10.5281/zenodo.19458138):** Demonstrates the *Thermodynamic Control Mechanism* and provides the physical proof of stability on the critical line. ## 🔗 Repository & SovereigntyFull source code, frequency tuning scripts, and raw validation logs are available for peer audit at:👉 **[https://github.com/Betriomf/Oasis-Sovereign-Monolith](https://github.com/Betriomf/Oasis-Sovereign-Monolith)** ---**Acknowledgements:** The author acknowledges the ÆTHER 2.3 computational engine for high-precision stability testing and data visualization. **Legal:** Protected under Oasis Dual Scientific-Commercial License (ODSC v1.0).

Zenodo (CERN European Organization for Nuclear Research)
University of Architecture, Civil Engineering and Geodesy (BG)
Openalex Percentile: Top 5%
Statistical Mechanics and Entropy
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