TetraNav-PostQuantum: A Post-Quantum Tetrahedral Hyperdimensional Navigation Framework

We introduce TetraNav-PostQuantum, the first post-quantum sovereign navigation system based on Tetrahedral Hyperdimensional Algebra. TetraNav enables inertial and gravitational navigation without reliance on electromagnetic fields, GPS, or classical inertial systems. This work presents the mathematical foundations, system architecture, and engineering realization of TetraNav, demonstrating resilience across gravitational distortions, temporal anomalies, and hyperdimensional phase drift. Background Inertial navigation systems have historically depended on conventional gyroscopes, accelerometers, and GPS-based corrections to maintain positional accuracy over time. However, these technologies face fundamental physical limitations when exposed to hostile environments, electromagnetic jamming, gravitational anomalies, or rapid inertial shifts. The rise of quantum technologies has opened the door to radically new navigation paradigms, yet even modern quantum sensing frameworks remain vulnerable to decoherence, phase drift, and systemic noise. Moreover, existing inertial navigation techniques rely on classical threedimensional reference frames, which become increasingly unstable at relativistic velocities, intense gravitational fluxes, and during deep-space missions. Motivation The modern world is entering an era where GPS-denial, electromagnetic suppression, and gravitational manipulation are no longer theoretical possibilities—they are operational realities. Future autonomous vehicles, spacecraft, defense platforms, and civilian infrastructure must possess navigation systems capable of: • Operating entirely independent of external signals (GPS, GLONASS, Galileo). • Maintaining absolute phase coherence through hostile scalar, gravitational, and temporal environments.• Self-correcting positional drift using recursive hyperdimensional topologies. • Withstanding electronic warfare environments through scalar field stabilization. Thus, the need arises for a new class of post-quantum inertial navigation systems — systems that do not merely resist disruption but operate natively within the fabric of spacetime itself. Vision: TetraNav TetraNav Proto-1 is the world’s first fully open-source hyperdimensional inertial navigation platform, combining: • Tetrahedral Hyperdimensional Algebra (THA) • Phase-Locked Tensor (Caduceus) Coil Arrays • Tesla-Driven Scalar Field Stabilizers • Golden Spiral Drift Correction Algorithms • Post-Quantum Causal Pathfinding Engines By utilizing recursive tetrahedral morphogenetic fields as inertial anchors and applying golden-ratio based corrections to temporal drift, TetraNav achieves resilience far beyond conventional systems. Unlike legacy IMU-based designs, TetraNav harmonizes navigation with the underlying scalar structure of spacetime itself - IPFS Archive: [https://ipfs.io/ipfs/bafybeigkfauxvgusfaya4taualhlkpj2xqa7c4i2ry3mn3no7lehifjeji](https://ipfs.io/ipfs/bafybeigkfauxvgusfaya4taualhlkpj2xqa7c4i2ry3mn3no7lehifjeji)- Archive.org Mirror: [https://archive.org/details/TetraNav-Quantum-Navigation](https://archive.org/details/TetraNav-Quantum-Navigation) **Version:** v1.0 (April 20 2025) - Open Source Hardware - Quantum Sensing and Navigation - Post-Quantum Cryptography - Sovereign Technologies

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Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2025-04-20
DOI
https://doi.org/10.5281/zenodo.15253110
Primary Topic
Algebraic and Geometric Analysis
Type
article
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article

TetraNav-PostQuantum: A Post-Quantum Tetrahedral Hyperdimensional Navigation Framework

Zenodo (CERN European Organization for Nuclear Research)
Algebraic and Geometric Analysis
article

TetraNav-PostQuantum: A Post-Quantum Tetrahedral Hyperdimensional Navigation Framework

article en

Abstract

We introduce TetraNav-PostQuantum, the first post-quantum sovereign navigation system based on Tetrahedral Hyperdimensional Algebra. TetraNav enables inertial and gravitational navigation without reliance on electromagnetic fields, GPS, or classical inertial systems. This work presents the mathematical foundations, system architecture, and engineering realization of TetraNav, demonstrating resilience across gravitational distortions, temporal anomalies, and hyperdimensional phase drift. Background Inertial navigation systems have historically depended on conventional gyroscopes, accelerometers, and GPS-based corrections to maintain positional accuracy over time. However, these technologies face fundamental physical limitations when exposed to hostile environments, electromagnetic jamming, gravitational anomalies, or rapid inertial shifts. The rise of quantum technologies has opened the door to radically new navigation paradigms, yet even modern quantum sensing frameworks remain vulnerable to decoherence, phase drift, and systemic noise. Moreover, existing inertial navigation techniques rely on classical threedimensional reference frames, which become increasingly unstable at relativistic velocities, intense gravitational fluxes, and during deep-space missions. Motivation The modern world is entering an era where GPS-denial, electromagnetic suppression, and gravitational manipulation are no longer theoretical possibilities—they are operational realities. Future autonomous vehicles, spacecraft, defense platforms, and civilian infrastructure must possess navigation systems capable of: • Operating entirely independent of external signals (GPS, GLONASS, Galileo). • Maintaining absolute phase coherence through hostile scalar, gravitational, and temporal environments.• Self-correcting positional drift using recursive hyperdimensional topologies. • Withstanding electronic warfare environments through scalar field stabilization. Thus, the need arises for a new class of post-quantum inertial navigation systems — systems that do not merely resist disruption but operate natively within the fabric of spacetime itself. Vision: TetraNav TetraNav Proto-1 is the world’s first fully open-source hyperdimensional inertial navigation platform, combining: • Tetrahedral Hyperdimensional Algebra (THA) • Phase-Locked Tensor (Caduceus) Coil Arrays • Tesla-Driven Scalar Field Stabilizers • Golden Spiral Drift Correction Algorithms • Post-Quantum Causal Pathfinding Engines By utilizing recursive tetrahedral morphogenetic fields as inertial anchors and applying golden-ratio based corrections to temporal drift, TetraNav achieves resilience far beyond conventional systems. Unlike legacy IMU-based designs, TetraNav harmonizes navigation with the underlying scalar structure of spacetime itself - IPFS Archive: [https://ipfs.io/ipfs/bafybeigkfauxvgusfaya4taualhlkpj2xqa7c4i2ry3mn3no7lehifjeji](https://ipfs.io/ipfs/bafybeigkfauxvgusfaya4taualhlkpj2xqa7c4i2ry3mn3no7lehifjeji)- Archive.org Mirror: [https://archive.org/details/TetraNav-Quantum-Navigation](https://archive.org/details/TetraNav-Quantum-Navigation) **Version:** v1.0 (April 20 2025) - Open Source Hardware - Quantum Sensing and Navigation - Post-Quantum Cryptography - Sovereign Technologies

Zenodo (CERN European Organization for Nuclear Research)
Hôpital d'instruction des Armées Percy (FR)
Openalex Percentile: Top 40%
Algebraic and Geometric Analysis
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