Quantum Resonance Unified Model - Numerical, Biological, and Cosmological Extensions v1.0
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| Format: | Recurso digital |
| Sprache: | Englisch |
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2025
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| _version_ | 1866901358852964352 |
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| author | P., Gabor |
| author_facet | P., Gabor |
| contents | <div dir="auto">Quantum Resonance Bio-Interface and Cosmological Extension – First-Pass Numerical Report</div> <div dir="auto">This document presents a combined analytical and numerical exploration of the Quantum Resonance Unified Model (QRUM) and its extended bio-interface implications. Building on previously published resonance-based spacetime formulations, this report introduces:</div> <div dir="auto"> </div> <div dir="auto">(1) refined numerical behaviour of the resonance term,</div> <div dir="auto">(2) an extended cosmological interpretation, and</div> <div dir="auto">(3) a biological interface model describing microtubule-level coherence conditions in living tissue.</div> <div dir="auto"> </div> <div dir="auto">The work outlines how intrinsic dipole-mode oscillations in neuronal microtubules can couple to QRUM-type resonance frequencies, potentially enabling structural reconfiguration, coherence transfer, and bio-electromagnetic modulation within a unified physical description.</div> <div dir="auto"> </div> <div dir="auto">The document also provides a preliminary cosmological extension, examining whether resonance-based coupling offers a consistent interpretation of large-scale spacetime behaviour.</div> <div dir="auto"> </div> <div dir="auto">This report is a first-pass analysis and is intended for scientific timestamping, reference, and further peer evaluation.</div> <div dir="auto"> </div> <div dir="auto">Related intellectual property:</div> <div dir="auto">Hungarian Patent Application — P2500452</div> <div dir="auto">Filed at the Hungarian Intellectual Property Office (SZTNH).</div> <div dir="auto"> </div> <div dir="auto">Previous related publications by the author:</div> <div dir="auto">– Einstein–Quantum Resonance Unified Model</div> <div dir="auto">– Extended Civilizational Detection Framework</div> <div dir="auto">– Quantum Resonance Unified Model: Bio-Interface Theory</div> <div dir="auto"> </div> <div dir="auto">This version contains no restricted or confidential material.</div> |
| format | Recurso digital |
| id | zenodo_https___doi_org_10_5281_zenodo_17727404 |
| institution | Zenodo |
| language | eng |
| publishDate | 2025 |
| publisher | Zenodo |
| record_format | zenodo |
| spellingShingle | Quantum Resonance Unified Model - Numerical, Biological, and Cosmological Extensions v1.0 P., Gabor Quantum Biology Biophysical Resonance Coupling Neuronal Coherence Theory Cytoskeleton Resonance Dynamics Cosmological Resonance Term Quantum–Classical Coupling Low-Energy Quantum Effects in Biology Resonance-Based Bio-Interface Structure Formation Mechanisms Phase-Coherence CriterionBiophysical Cosmology Spacetime Modulation Mechanism Quantum Resonance Energy Transfer Intracellular Organizational Dynamics <div dir="auto">Quantum Resonance Bio-Interface and Cosmological Extension – First-Pass Numerical Report</div> <div dir="auto">This document presents a combined analytical and numerical exploration of the Quantum Resonance Unified Model (QRUM) and its extended bio-interface implications. Building on previously published resonance-based spacetime formulations, this report introduces:</div> <div dir="auto"> </div> <div dir="auto">(1) refined numerical behaviour of the resonance term,</div> <div dir="auto">(2) an extended cosmological interpretation, and</div> <div dir="auto">(3) a biological interface model describing microtubule-level coherence conditions in living tissue.</div> <div dir="auto"> </div> <div dir="auto">The work outlines how intrinsic dipole-mode oscillations in neuronal microtubules can couple to QRUM-type resonance frequencies, potentially enabling structural reconfiguration, coherence transfer, and bio-electromagnetic modulation within a unified physical description.</div> <div dir="auto"> </div> <div dir="auto">The document also provides a preliminary cosmological extension, examining whether resonance-based coupling offers a consistent interpretation of large-scale spacetime behaviour.</div> <div dir="auto"> </div> <div dir="auto">This report is a first-pass analysis and is intended for scientific timestamping, reference, and further peer evaluation.</div> <div dir="auto"> </div> <div dir="auto">Related intellectual property:</div> <div dir="auto">Hungarian Patent Application — P2500452</div> <div dir="auto">Filed at the Hungarian Intellectual Property Office (SZTNH).</div> <div dir="auto"> </div> <div dir="auto">Previous related publications by the author:</div> <div dir="auto">– Einstein–Quantum Resonance Unified Model</div> <div dir="auto">– Extended Civilizational Detection Framework</div> <div dir="auto">– Quantum Resonance Unified Model: Bio-Interface Theory</div> <div dir="auto"> </div> <div dir="auto">This version contains no restricted or confidential material.</div> |
| title | Quantum Resonance Unified Model - Numerical, Biological, and Cosmological Extensions v1.0 |
| topic | Quantum Biology Biophysical Resonance Coupling Neuronal Coherence Theory Cytoskeleton Resonance Dynamics Cosmological Resonance Term Quantum–Classical Coupling Low-Energy Quantum Effects in Biology Resonance-Based Bio-Interface Structure Formation Mechanisms Phase-Coherence CriterionBiophysical Cosmology Spacetime Modulation Mechanism Quantum Resonance Energy Transfer Intracellular Organizational Dynamics |
| url | https://doi.org/10.5281/zenodo.17727404 |