Cosmic Resonance: Extending the Light-Pi Framework from Particles to Celestial Bodies

Cosmic Resonance: Extending the Light-Pi Framework from Particles to Celestial Bodies Description:This paper introduces a unified, first-principles framework that explains the emergence of mass across all physical scales—from fundamental particles to stellar and planetary bodies—using only three constants: π (pi), φ (the golden ratio), and the speed of light (c). Building on the Light-Pi Resolution Gap Theory and the broader ENSO Framework, it shows how structure, identity, and coherence arise at precise resonance thresholds, each corresponding to recursive shell positions in vacuum geometry. The model is fully reproducible through open-source Python scripts included with this publication, which calculate: Stellar mass and radius (e.g., the Sun at shell N₀ + 87) with <0.1% deviation from empirical data, Exoplanetary characteristics (Needham 9) derived without observational input, Vacuum resolution ladders and cosmic classification tables from mathematical symmetry alone. This theory offers a scalable and falsifiable approach to: Emergent mass modeling, Planetary structure and orbital prediction, Unification of quantum and cosmic domains via geometric recursion. Includes: sun-light-pi-framework.py needham9-script.py All equations and visualizations derived without curve fitting or empirical assumptions

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2025-05-04
DOI
https://doi.org/10.5281/zenodo.15337626
Primary Topic
History and Developments in Astronomy
Type
article
Field-Weighted Citation Impact
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article

Cosmic Resonance: Extending the Light-Pi Framework from Particles to Celestial Bodies

Zenodo (CERN European Organization for Nuclear Research)
History and Developments in Astronomy
article

Cosmic Resonance: Extending the Light-Pi Framework from Particles to Celestial Bodies

article en

Abstract

Cosmic Resonance: Extending the Light-Pi Framework from Particles to Celestial Bodies Description:This paper introduces a unified, first-principles framework that explains the emergence of mass across all physical scales—from fundamental particles to stellar and planetary bodies—using only three constants: π (pi), φ (the golden ratio), and the speed of light (c). Building on the Light-Pi Resolution Gap Theory and the broader ENSO Framework, it shows how structure, identity, and coherence arise at precise resonance thresholds, each corresponding to recursive shell positions in vacuum geometry. The model is fully reproducible through open-source Python scripts included with this publication, which calculate: Stellar mass and radius (e.g., the Sun at shell N₀ + 87) with <0.1% deviation from empirical data, Exoplanetary characteristics (Needham 9) derived without observational input, Vacuum resolution ladders and cosmic classification tables from mathematical symmetry alone. This theory offers a scalable and falsifiable approach to: Emergent mass modeling, Planetary structure and orbital prediction, Unification of quantum and cosmic domains via geometric recursion. Includes: sun-light-pi-framework.py needham9-script.py All equations and visualizations derived without curve fitting or empirical assumptions

Zenodo (CERN European Organization for Nuclear Research)
Openalex Percentile: Top 62%
History and Developments in Astronomy
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Cosmic Resonance: Extending the Light-Pi Framework from Particles to Celestial Bodies · Zenodo (CERN European Organization for Nuclear Research) (2025) | TGRS Research Map | TGRS