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2026
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| Online Access: | https://doi.org/10.5281/zenodo.19663793 |
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| _version_ | 1866901945341444096 |
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| author | Rodriguez, Merary |
| author_facet | Rodriguez, Merary |
| contents | <p>Computational Analysis — More Human Than Human, ARC Series (Paper III). We apply the Adaptive Regime Classifier (ARC) operator introduced in Rodriguez (2026a) to mitochondrial bioelectric data at three independent biological scales — molecular, subcellular, and tissue — and observe consistent FREE-regime classification (confidence ≥ 0.881) at each scale. Applying Proposition 7 (inverse-square eigenfrequency scaling) to mitochondrial membrane-domain length scales (a₀ ~ 10⁻⁶ m) predicts a dominant subcellular frequency near 42 Hz.</p> <p><br>This prediction converges with four independent derivations: structural periodicity analysis of the human mitochondrial reference sequence NC_012920.1 (16,569 bp; 42.8 Hz), the ARC water spectral attractor at T = 277.15 K (41.35 Hz), kinetic fitting of a five-compartment bioelectric model (42.8 ± 4.47 Hz), and the φ/2 tissue-level frequency law of the constraint architecture developed in Rodriguez (2026b) (42.8 Hz). Spectral decomposition of the compartment correlation matrix yields a single dominant eigenmode capturing 87.4% of structural energy, with mitochondria loading 0.35 on that mode.<br>A sensitivity analysis confirms that ±10% variation in the characteristic length scale keeps the predicted frequency within the kinetic resonance window. The framework provides a candidate subcellular instantiation of the regime-restoration mechanism anticipated in Paper II of the series (Theorem 1 therein). Results are computational and analytical; no experimental data are reported. Experimental verification requires controlled multi-scale bioelectric measurement with frequency resolution in the 1 Hz range.</p> <p><br>This work is Paper III of the More Human Than Human — ARC Series. Related: Paper I (Rodriguez 2026a, DOI 10.5281/zenodo.19079394) and Paper II (Rodriguez 2026b, DOI 10.5281/zenodo.19631245).</p> |
| format | Recurso digital |
| id | zenodo_https___doi_org_10_5281_zenodo_19663793 |
| institution | Zenodo |
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| publishDate | 2026 |
| publisher | Zenodo |
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| spellingShingle | Mitochondrial Spectral Encoding as a Mechanism for Regime Restoration in Cross-Scale Bioelectric Systems Rodriguez, Merary <p>Computational Analysis — More Human Than Human, ARC Series (Paper III). We apply the Adaptive Regime Classifier (ARC) operator introduced in Rodriguez (2026a) to mitochondrial bioelectric data at three independent biological scales — molecular, subcellular, and tissue — and observe consistent FREE-regime classification (confidence ≥ 0.881) at each scale. Applying Proposition 7 (inverse-square eigenfrequency scaling) to mitochondrial membrane-domain length scales (a₀ ~ 10⁻⁶ m) predicts a dominant subcellular frequency near 42 Hz.</p> <p><br>This prediction converges with four independent derivations: structural periodicity analysis of the human mitochondrial reference sequence NC_012920.1 (16,569 bp; 42.8 Hz), the ARC water spectral attractor at T = 277.15 K (41.35 Hz), kinetic fitting of a five-compartment bioelectric model (42.8 ± 4.47 Hz), and the φ/2 tissue-level frequency law of the constraint architecture developed in Rodriguez (2026b) (42.8 Hz). Spectral decomposition of the compartment correlation matrix yields a single dominant eigenmode capturing 87.4% of structural energy, with mitochondria loading 0.35 on that mode.<br>A sensitivity analysis confirms that ±10% variation in the characteristic length scale keeps the predicted frequency within the kinetic resonance window. The framework provides a candidate subcellular instantiation of the regime-restoration mechanism anticipated in Paper II of the series (Theorem 1 therein). Results are computational and analytical; no experimental data are reported. Experimental verification requires controlled multi-scale bioelectric measurement with frequency resolution in the 1 Hz range.</p> <p><br>This work is Paper III of the More Human Than Human — ARC Series. Related: Paper I (Rodriguez 2026a, DOI 10.5281/zenodo.19079394) and Paper II (Rodriguez 2026b, DOI 10.5281/zenodo.19631245).</p> |
| title | Mitochondrial Spectral Encoding as a Mechanism for Regime Restoration in Cross-Scale Bioelectric Systems |
| url | https://doi.org/10.5281/zenodo.19663793 |