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Autor principal: Stieve, Jonathan
Formato: Recurso digital
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Publicado: Zenodo 2025
Acceso en línea:https://doi.org/10.5281/zenodo.17823079
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author Stieve, Jonathan
author_facet Stieve, Jonathan
contents <p>UHF/SZTM Substrate Communication Protocol (SCP) provides a mathematically grounded framework for phase‑encoded information transfer within a harmonic spacetime substrate. Building on the Unified Harmonic Framework (UHF) and Stieve Zero‑Point Topological Mathematica (SZTM), this protocol formalizes how quantum‑level fluctuations, curvature modulation, and harmonic resonance can be harnessed to encode, transmit, and decode information across a spacetime manifold. By defining explicit mappings for phase deviations, quantifying bandwidth under curvature constraints, and modeling noise—including quantum fluctuations—the SCP demonstrates the theoretical feasibility of communication channels embedded directly in the substrate of spacetime. The framework integrates entropy‑information diagnostics, resonance stability metrics, and harmonic manifold simulations to provide a reproducible, computationally tractable approach to advanced substrate-level signaling</p>
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spellingShingle UHF/SZTM Substrate Communication Protocol (SCP) provides a mathematically grounded framework for phase‑encoded information transfer within a harmonic spacetime substrate.
Stieve, Jonathan
<p>UHF/SZTM Substrate Communication Protocol (SCP) provides a mathematically grounded framework for phase‑encoded information transfer within a harmonic spacetime substrate. Building on the Unified Harmonic Framework (UHF) and Stieve Zero‑Point Topological Mathematica (SZTM), this protocol formalizes how quantum‑level fluctuations, curvature modulation, and harmonic resonance can be harnessed to encode, transmit, and decode information across a spacetime manifold. By defining explicit mappings for phase deviations, quantifying bandwidth under curvature constraints, and modeling noise—including quantum fluctuations—the SCP demonstrates the theoretical feasibility of communication channels embedded directly in the substrate of spacetime. The framework integrates entropy‑information diagnostics, resonance stability metrics, and harmonic manifold simulations to provide a reproducible, computationally tractable approach to advanced substrate-level signaling</p>
title UHF/SZTM Substrate Communication Protocol (SCP) provides a mathematically grounded framework for phase‑encoded information transfer within a harmonic spacetime substrate.
url https://doi.org/10.5281/zenodo.17823079