Full-Scale Empirical Proof of the Dynamic String Force Formula:Unified Log-Periodic Oscillations from Microscopic Quarks toCosmological Planetary Orbits

This paper reports an empirical discovery spanning nearly 30 orders of magnitude: the log-periodic oscillation predicted by the Dynamic String Force Formula is simultaneously detected in three completely independentphysical systems: (1) microscopic high-energy scattering data of the proton structure function from HERA ZEUS; (2) four sets of classical fluid mechanics wake experiments (flow around a cylinder, aircraft wingtip vortex, shipwake, turbulent free shear layer) ; (3) orbital radius distribution of the eight planets in the solar system . Independent fittings of the three datasets all show a stable characteristic frequency ω ≈ 0.75, goodness-of-fit χ 2/ndf allclose to 1.0, and statistical significance ranging from 7.4σ to 8.3σ, all far exceeding the 5σ discovery standardin particle physics.This cross-scale and cross-system consistency and symmetry in eigenfrequency indicate that the DynamicString Force Formula is not merely an empirical fitting tool, but a direct mathematical expression of the cosmicenergy string structure. This paper also briefly describes the theoretical construction logic of the formula: basedon the static string force framework, it integrates fractal quantization of the Fibonacci sequence, spiral phasemapping of Euler’s formula, and scaling self-similarity of the Mandelbrot set, with a phase-transition criterionbetween particle states and energy eigenstates at the Planck scale.

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Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-05-17
DOI
https://doi.org/10.5281/zenodo.20254872
Primary Topic
Advanced Mathematical Theories and Applications
Type
preprint
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preprint

Full-Scale Empirical Proof of the Dynamic String Force Formula:Unified Log-Periodic Oscillations from Microscopic Quarks toCosmological Planetary Orbits

chen xuehong
Zenodo (CERN European Organization for Nuclear Research)
Advanced Mathematical Theories and Applications
preprint

Full-Scale Empirical Proof of the Dynamic String Force Formula:Unified Log-Periodic Oscillations from Microscopic Quarks toCosmological Planetary Orbits

chen xuehong
preprint en

Abstract

This paper reports an empirical discovery spanning nearly 30 orders of magnitude: the log-periodic oscillation predicted by the Dynamic String Force Formula is simultaneously detected in three completely independentphysical systems: (1) microscopic high-energy scattering data of the proton structure function from HERA ZEUS; (2) four sets of classical fluid mechanics wake experiments (flow around a cylinder, aircraft wingtip vortex, shipwake, turbulent free shear layer) ; (3) orbital radius distribution of the eight planets in the solar system . Independent fittings of the three datasets all show a stable characteristic frequency ω ≈ 0.75, goodness-of-fit χ 2/ndf allclose to 1.0, and statistical significance ranging from 7.4σ to 8.3σ, all far exceeding the 5σ discovery standardin particle physics.This cross-scale and cross-system consistency and symmetry in eigenfrequency indicate that the DynamicString Force Formula is not merely an empirical fitting tool, but a direct mathematical expression of the cosmicenergy string structure. This paper also briefly describes the theoretical construction logic of the formula: basedon the static string force framework, it integrates fractal quantization of the Fibonacci sequence, spiral phasemapping of Euler’s formula, and scaling self-similarity of the Mandelbrot set, with a phase-transition criterionbetween particle states and energy eigenstates at the Planck scale.

Zenodo (CERN European Organization for Nuclear Research)
East China University of Technology (CN)
Affordable and clean energy
Advanced Mathematical Theories and Applications
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