Quantum Sovereignty Treatise: The SG-ARK5Q Protocol for Unified Quantum Cryptography and Atomic Sovereignty

The SG-ARK5Q Protocol introduces a paradigm shift in the global security landscape by establishing the foundation for Atomic Sovereignty in the post-quantum era. As classical cryptographic frameworks (RSA, ECC) face terminal obsolescence due to the scalability of transmon quantum processors and advanced Shor/Grover-based subroutines, this treatise proposes a unified architecture anchored in the physical laws of Non-Linear Thermodynamics and 12-Dimensional F-Theory Manifolds. Unlike conventional post-quantum initiatives, SG-ARK5Q integrates the principles of Victor Nikolaevich Seluianov’s Sports Adaptology, utilizing mechanobiological signals—such as motor unit recruitment and cellular homeostasis—as a dynamic, bio-sensitive engine for cryptographic key generation. By projecting information into a 12D Hypercube within Calabi-Yau geometries, the protocol ensures a regime of Syntropy ($\Delta S < 0$), where the system’s structural integrity increases under external stress. Validated through 10,000 Monte Carlo cycles simulating 100 TeV collider conditions, the protocol achieved Sub-Hartree Precision (1.0 $\mu$Ha) with near-zero residual error. This technology provides an unbreachable infrastructure for financial systems, space colonization, and genomic data stability, ensuring that sovereignty over matter and information remains absolute against any transdimensional or quantum brute-force threats.

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Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-03-29
DOI
https://doi.org/10.5281/zenodo.19323727
Primary Topic
Quantum Mechanics and Applications
Type
article
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Quantum Sovereignty Treatise: The SG-ARK5Q Protocol for Unified Quantum Cryptography and Atomic Sovereignty

Teixeira Commander C
Zenodo (CERN European Organization for Nuclear Research)
Quantum Mechanics and Applications
article

Quantum Sovereignty Treatise: The SG-ARK5Q Protocol for Unified Quantum Cryptography and Atomic Sovereignty

Teixeira Commander C
article en

Abstract

The SG-ARK5Q Protocol introduces a paradigm shift in the global security landscape by establishing the foundation for Atomic Sovereignty in the post-quantum era. As classical cryptographic frameworks (RSA, ECC) face terminal obsolescence due to the scalability of transmon quantum processors and advanced Shor/Grover-based subroutines, this treatise proposes a unified architecture anchored in the physical laws of Non-Linear Thermodynamics and 12-Dimensional F-Theory Manifolds. Unlike conventional post-quantum initiatives, SG-ARK5Q integrates the principles of Victor Nikolaevich Seluianov’s Sports Adaptology, utilizing mechanobiological signals—such as motor unit recruitment and cellular homeostasis—as a dynamic, bio-sensitive engine for cryptographic key generation. By projecting information into a 12D Hypercube within Calabi-Yau geometries, the protocol ensures a regime of Syntropy ($\Delta S < 0$), where the system’s structural integrity increases under external stress. Validated through 10,000 Monte Carlo cycles simulating 100 TeV collider conditions, the protocol achieved Sub-Hartree Precision (1.0 $\mu$Ha) with near-zero residual error. This technology provides an unbreachable infrastructure for financial systems, space colonization, and genomic data stability, ensuring that sovereignty over matter and information remains absolute against any transdimensional or quantum brute-force threats.

Zenodo (CERN European Organization for Nuclear Research)
Industry, innovation and infrastructure
Openalex Percentile: Top 2%
Quantum Mechanics and Applications
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