Parameter–Free Derivations of Fundamental Dimensionless Constants from Recognition Physics

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Autor principal: washburn, jonathan
Formato: Recurso digital
Publicado: Zenodo 2025
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author washburn, jonathan
author_facet washburn, jonathan
contents <div> <div> <div> <p>We present a unified, parameter–free framework for deriving fundamental dimensionless con- stants entirely from first principles within the context of Recognition Physics. Based on the core postulates of dual recognition and minimal informational overhead, our approach demonstrates that observable quantities—such as the fine–structure constant, the unity ratio φ/π, the ratio of the Planck force to the Coulomb force, the Weinberg angle, various mass ratios (electron-to-proton, proton-to-neutron, muon-to-electron), the gravitational coupling constant, a dimensionless form of the cosmological constant, quark mass ratios, and the Higgs VEV/Planck energy ratio—as well as emergent constants like π, the golden ratio φ, and Euler’s number e from entropy–based considerations, emerge inevitably from the interplay between geometric scaling and information–theoretic constraints. This work establishes a deterministic foundation for the emer- gence of physical constants and lays the groundwork for a unified description of mass generation, gravitational dynamics, and quantum measurement.</p> </div> </div> </div>
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publishDate 2025
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spellingShingle Parameter–Free Derivations of Fundamental Dimensionless Constants from Recognition Physics
washburn, jonathan
<div> <div> <div> <p>We present a unified, parameter–free framework for deriving fundamental dimensionless con- stants entirely from first principles within the context of Recognition Physics. Based on the core postulates of dual recognition and minimal informational overhead, our approach demonstrates that observable quantities—such as the fine–structure constant, the unity ratio φ/π, the ratio of the Planck force to the Coulomb force, the Weinberg angle, various mass ratios (electron-to-proton, proton-to-neutron, muon-to-electron), the gravitational coupling constant, a dimensionless form of the cosmological constant, quark mass ratios, and the Higgs VEV/Planck energy ratio—as well as emergent constants like π, the golden ratio φ, and Euler’s number e from entropy–based considerations, emerge inevitably from the interplay between geometric scaling and information–theoretic constraints. This work establishes a deterministic foundation for the emer- gence of physical constants and lays the groundwork for a unified description of mass generation, gravitational dynamics, and quantum measurement.</p> </div> </div> </div>
title Parameter–Free Derivations of Fundamental Dimensionless Constants from Recognition Physics
url https://doi.org/10.5281/zenodo.14877604