THEORY OF UNIVERSAL EVOLUTIVE REDISTRIBUTION. UNIVERSAL EQUATION, GRAVITATION AND STRUCTURAL SIGNATURES.

We present a unified theoretical framework, called TRUE, based on a discrete universal equation describing the accumulation, saturation and redistribution of a local constraint on a network of coupled sites. The equation is unique, explicit, local, computable in exact fractions, without eigenvalues, without continuous functions, without floating-point arithmetic. We show that it reproduces the precessions of the first 6 planets of the solar system with a maximum deviation of less than 0.05 arcsecond per century. The ratio between the corrective coefficients A and B of the force equation is derived structurally from the conductances of the network, without any free parameter. The exact conservation of flux on a three-dimensional network is verified in fractions, and the constant 1 over 4 pi follows. We finally show that the arithmetic signature of the solution depends on the valence of the network: a linear network produces Fibonacci, a binary tree produces powers of 2, a square grid produces no known integer sequence. The framework is universal in its law, local in its values.

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Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-09-13
DOI
https://doi.org/10.5281/zenodo.22735750
Primary Topic
Advanced Mathematical Theories and Applications
Type
preprint
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preprint

THEORY OF UNIVERSAL EVOLUTIVE REDISTRIBUTION. UNIVERSAL EQUATION, GRAVITATION AND STRUCTURAL SIGNATURES.

Michel Febba
Zenodo (CERN European Organization for Nuclear Research)
Advanced Mathematical Theories and Applications
preprint

THEORY OF UNIVERSAL EVOLUTIVE REDISTRIBUTION. UNIVERSAL EQUATION, GRAVITATION AND STRUCTURAL SIGNATURES.

Michel Febba
preprint en

Abstract

We present a unified theoretical framework, called TRUE, based on a discrete universal equation describing the accumulation, saturation and redistribution of a local constraint on a network of coupled sites. The equation is unique, explicit, local, computable in exact fractions, without eigenvalues, without continuous functions, without floating-point arithmetic. We show that it reproduces the precessions of the first 6 planets of the solar system with a maximum deviation of less than 0.05 arcsecond per century. The ratio between the corrective coefficients A and B of the force equation is derived structurally from the conductances of the network, without any free parameter. The exact conservation of flux on a three-dimensional network is verified in fractions, and the constant 1 over 4 pi follows. We finally show that the arithmetic signature of the solution depends on the valence of the network: a linear network produces Fibonacci, a binary tree produces powers of 2, a square grid produces no known integer sequence. The framework is universal in its law, local in its values.

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