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March 27, 20260 citationsOpen Access

A Parameter-Free Structural Bridge between the Fine-Structure Constant and Newton's Gravitational Constant in the PDL Framework

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CLCédric Laubscher

Key Points

  • The aim is to establish a relationship between the fine-structure constant and Newton's gravitational constant within the PDL framework.
  • Developed a structural expression for the fine-structure constant based solely on a hierarchical composite of protons.
  • Demonstrated a 'bridge formula' linking the electromagnetic valence surplus to Newton's gravitational constant.
  • Analyzed the coherence-leakage parameter and its role in connecting these constants within the PDL context.
  • The fine-structure constant was derived with a precision of $1.0 \times 10^{-4}$ without continuous fitting parameters.
  • A structural formula connecting the fine-structure constant and Newton's gravitational constant was established, indicating interdependence.
  • Finding suggests fundamental constants arise from discrete topological and relational structures rather than independent parameters.

Abstract

Within the Projective Dynamic Logo (PDL) framework, physical reality is reconstructed from relational axioms on finite signed graphs without presupposing space, time, or particles. The proton is represented as a hierarchical composite characterized by the unique integer quintuplet (nᵤ, nd, rₕ₀₋, Rₒ₄₀, Rₓ₎ₓ) = (24, 28, 930, 10, 087, 11, 017) together with a golden-ratio active surface Rₒₔₑ₅ = rₕ₀₋ / 3. From this architecture alone, we derive a structural expression for the fine-structure constant, ₏₃₋, yielding a value that matches experimental data with a relative precision of 1. 0 10^-4 without any continuous fitting parameters. We then demonstrate a structural "bridge formula" connecting the electromagnetic valence surplus rₕ₀₋ to Newton's gravitational constant G. This link is mediated by the primary coherence-leakage parameter G and the 18-fold hierarchical amplification process, recently established as a topological necessity (K₄ S²). These results suggest that fundamental constants are not independent free parameters, but emergent signatures of relational optimization and discrete topological constraints within the PDL substrate.

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Cite This Study

Cédric Laubscher (2026) studied this question.

synapsesocial.com/papers/69c6204c15a0a509bde18be5https://doi.org/10.5281/zenodo.19219858
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