Dynamic Extension of the Unified Field Equation: Logarithmic Resonance of Toroidal Energy Bundles and Vacuum Quantum Integer Powers
Abstract
This paper presents a fundamental dynamic extension to the unified field model. The geometric framework, originally built upon strict space-energy invariants (k = 1.14411831159 and x = 1.23072856957), is generalized by introducing a dynamic Euler field coefficient e_dyn = 1.07491144155. Moving beyond static models, the paper postulates that physical space-time is formed by dynamic energy bundles winding along the logarithmic spirals of a continuously inverting toroidal vacuum grid.
By utilizing a resonance equation governed strictly by quantum integer powers—representing exact topological winding numbers or toric knots of the energy fields—the model provides a unified numerical solution to three critical cosmological anomalies with an accuracy of up to 11 decimal places:
The Micro-World Gravitational Coupling: Resolves the electron gravitational force scale through the exact integer winding powers of -2431, 1490, and -1178.
The Cosmological Constant Problem: Resolves the 120-orders-of-magnitude vacuum energy discrepancy through the scale-shifting integer powers of 1975, 967, and -2635.
Baryon Asymmetry: Derives the net-matter parameter of the Universe through the inflationary phase-shift powers of 70, 279, and -1226.
Furthermore, the model demonstrates strict fractal scalability, successfully deriving local quantum parameters (such as the electroweak splitting scale and the anomalous magnetic moment) using minimal single-digit integer powers. Minor fractional deviations at small scales are theoretically justified as vacuum radiation corrections.
Finally, the predictive power of the model is validated through independent Python-driven algorithms, yielding four major verified predictions: the true proton radius (0.84100 femtometers, confirming muon-hydrogen experiments), the heavy neutrino mass hierarchy (0.00890 eV and 0.05000 eV), the exact theoretical Higgs boson mass (125.1097 GeV), and the early vacuum radiation density parameter (N_eff = 3.04400). The complete absence of fractional remnants across independent cosmological and quantum domains strongly excludes combinatorial randomness and validates the proposed matrix of the Unified Field.
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BibTeX
@misc{saltykov2026dynamic,
title = {{Dynamic Extension of the Unified Field Equation: Logarithmic Resonance of Toroidal Energy Bundles and Vacuum Quantum Integer Powers}},
author = {Saltykov},
howpublished = {Zenodo},
year = {2026},
month = oct,
doi = {10.5281/zenodo.23479248},
url = {https://zenodo.org/records/23479248},
note = {CC BY 4.0},
}
RIS
TY - UNPB
TI - Dynamic Extension of the Unified Field Equation: Logarithmic Resonance of Toroidal Energy Bundles and Vacuum Quantum Integer Powers
AU - Saltykov
PY - 2026
DA - 2026/10/19
PB - Zenodo
DO - 10.5281/zenodo.23479248
UR - https://zenodo.org/records/23479248
AB - This paper presents a fundamental dynamic extension to the unified field model. The geometric framework, originally built upon strict space-energy invariants (k = 1.14411831159 and x = 1.23072856957), is generalized by introducing a dynamic Euler field coefficient e_dyn = 1.07491144155. Moving beyond static models, the paper postulates that physical space-time is formed by dynamic energy bundles winding along the logarithmic spirals of a continuously inverting toroidal vacuum grid. By utilizing a resonance equation governed strictly by quantum integer powers—representing exact topological winding numbers or toric knots of the energy fields—the model provides a unified numerical solution to three critical cosmological anomalies with an accuracy of up to 11 decimal places: The Micro-World Gravitational Coupling: Resolves the electron gravitational force scale through the exact integer winding powers of -2431, 1490, and -1178. The Cosmological Constant Problem: Resolves the 120-orders-of-magnitude vacuum energy discrepancy through the scale-shifting integer powers of 1975, 967, and -2635. Baryon Asymmetry: Derives the net-matter parameter of the Universe through the inflationary phase-shift powers of 70, 279, and -1226. Furthermore, the model demonstrates strict fractal scalability, successfully deriving local quantum parameters (such as the electroweak splitting scale and the anomalous magnetic moment) using minimal single-digit integer powers. Minor fractional deviations at small scales are theoretically justified as vacuum radiation corrections. Finally, the predictive power of the model is validated through independent Python-driven algorithms, yielding four major verified predictions: the true proton radius (0.84100 femtometers, confirming muon-hydrogen experiments), the heavy neutrino mass hierarchy (0.00890 eV and 0.05000 eV), the exact theoretical Higgs boson mass (125.1097 GeV), and the early vacuum radiation density parameter (N_eff = 3.04400). The complete absence of fractional remnants across independent cosmological and quantum domains strongly excludes combinatorial randomness and validates the proposed matrix of the Unified Field.
ER -