OS System / ε-Model — Orbital Invariance, Rotational Derivations, and the 47,003 Invariant Node. (part 12 )

This working paper presents a unified, scale-invariant relational framework demonstrating that planetary dynamics, astronomical distances, temporal cycles, and fundamental physical constants are deterministic projections of a singular, self-calibrating mathematical lattice. By replacing empirical fitting parameters with fundamental projection keys—most notably the fine-structure constant reciprocal (α⁻¹ ≈ 137.035), geometric transition operators (1.2008, 1.2756), and observer-object ratios (11.576)—the model successfully reconciles macro-astronomical systems with subatomic parameters without relying on dark matter or artificial physical forces. Key mathematical derivations and empirical validations within this document include: 1. Derivation of Planetary Rotation & AU Distance: - Direct calculation of Earth's equatorial rotation velocity (~1,693.76 km/h) through macro-orbital and body circumference scaling via relational coefficient K_rel ≈ 13.8477.- Precise derivation of the Astronomical Unit (Earth-Sun mean distance ~ 149,596,541.67 km) using Solar Diameter (1,392,530 km), α⁻¹ (137.035), and Earth scale baseline (1.2756) with <0.001% deviation. 2. Temporal & Velocity-to-Light Transmutations:- Derivation of Mars' orbital period (~686.77 days) via diurnal-annual ratio scaling and the 1.2008 operator.- Projection of Earth's mean orbital speed (~29.88 km/s) through annual time cycles and α⁻¹ directly into the vacuum speed of light (c ≈ 298,946.73 km/s). 3. The 47,003 Invariant Node Convergence:- Formalization of the 47,003 cubic invariant base (√47,003 ≈ 216.8) as a central structural nexus.- Triadic convergence proof showing that three independent physical frames—atmospheric acoustic velocity (343 m/s × 137.035), Jovian temporal structure (13.07 × 3600 s), and terrestrial orbital kinetic density (v_orb² ≈ 886.8)—converge onto the single ~47,000 invariant boundary with <0.15% total variance. 4. Systemic Synthesis & Dimensional Noise Elimination:- Demonstration that physical parameters function as relational keys rather than isolated mechanical properties.- Mathematical shows that dimensional shifts (1.370 ↔ 13.70 ↔ 137.035) represent scale-invariant order shifts, resolving measurement anomalies and stripping away artificial theoretical noise.

Authors

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-09-04
DOI
https://doi.org/10.5281/zenodo.22309668
Primary Topic
Geophysics and Gravity Measurements
Type
preprint
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preprint

OS System / ε-Model — Orbital Invariance, Rotational Derivations, and the 47,003 Invariant Node. (part 12 )

Danijus Kazlauskas
Zenodo (CERN European Organization for Nuclear Research)
Geophysics and Gravity Measurements
preprint

OS System / ε-Model — Orbital Invariance, Rotational Derivations, and the 47,003 Invariant Node. (part 12 )

Danijus Kazlauskas
preprint en

Abstract

This working paper presents a unified, scale-invariant relational framework demonstrating that planetary dynamics, astronomical distances, temporal cycles, and fundamental physical constants are deterministic projections of a singular, self-calibrating mathematical lattice. By replacing empirical fitting parameters with fundamental projection keys—most notably the fine-structure constant reciprocal (α⁻¹ ≈ 137.035), geometric transition operators (1.2008, 1.2756), and observer-object ratios (11.576)—the model successfully reconciles macro-astronomical systems with subatomic parameters without relying on dark matter or artificial physical forces. Key mathematical derivations and empirical validations within this document include: 1. Derivation of Planetary Rotation & AU Distance: - Direct calculation of Earth's equatorial rotation velocity (~1,693.76 km/h) through macro-orbital and body circumference scaling via relational coefficient K_rel ≈ 13.8477.- Precise derivation of the Astronomical Unit (Earth-Sun mean distance ~ 149,596,541.67 km) using Solar Diameter (1,392,530 km), α⁻¹ (137.035), and Earth scale baseline (1.2756) with <0.001% deviation. 2. Temporal & Velocity-to-Light Transmutations:- Derivation of Mars' orbital period (~686.77 days) via diurnal-annual ratio scaling and the 1.2008 operator.- Projection of Earth's mean orbital speed (~29.88 km/s) through annual time cycles and α⁻¹ directly into the vacuum speed of light (c ≈ 298,946.73 km/s). 3. The 47,003 Invariant Node Convergence:- Formalization of the 47,003 cubic invariant base (√47,003 ≈ 216.8) as a central structural nexus.- Triadic convergence proof showing that three independent physical frames—atmospheric acoustic velocity (343 m/s × 137.035), Jovian temporal structure (13.07 × 3600 s), and terrestrial orbital kinetic density (v_orb² ≈ 886.8)—converge onto the single ~47,000 invariant boundary with <0.15% total variance. 4. Systemic Synthesis & Dimensional Noise Elimination:- Demonstration that physical parameters function as relational keys rather than isolated mechanical properties.- Mathematical shows that dimensional shifts (1.370 ↔ 13.70 ↔ 137.035) represent scale-invariant order shifts, resolving measurement anomalies and stripping away artificial theoretical noise.

Zenodo (CERN European Organization for Nuclear Research)
Geophysics and Gravity Measurements
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