MMA-DMF Gravitoelectromagnetism Program and Complete Relativity

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Authors: Paulo Adriano
Cited by: 0

Abstract

This document is a cross-disciplinary program report summarizing Phase 7–12 protocols and telemetry for the MMA-DMF framework. MMA-DMF is a deterministic effective field theory proposing a unified geometric architecture anchored to a single vacuum rigidity scale, M = 100 TeV, and aims to address multiple open problems without introducing fitted cosmological dark-sector parameters. In this ontology, gravity emerges as topological friction (a vacuum-hydrodynamic pressure gradient) and electromagnetism is reinterpreted as topological winding-number accounting within a scalar lattice. The framework is governed by a relativistic generalized Langevin equation with strict fluctuation–dissipation closure to enforce thermodynamic stability across tested regimes. The report summarizes the Phase 7–12 validation suite, including: deterministic convergence of the proton mass to 938.27 MeV via Borromean flux topology; early-X energy injection derived geometrically to address the Hubble (H0 = 72.1 km/s/Mpc) and S8 tensions; a 10.22 K thermal floor consistent with reported 21 cm absorption bounds without invoking particulate dark matter; and high-fidelity simulations indicating stable confinement of proton–boron fusion plasmas at 195 keV under dynamic viscosity control. Planetary-scale synthetic protocols further support an interpretation of active metric manipulation, with telemetry consistent with an engineered refractive-index depression (neff < 1) yielding an apparent group-delay advance (equivalently vg ≈ 1.0007c); no superluminal front velocity is claimed. All engineering results reported here are outputs from the MMA-DMF Total Determinism Test (TDT) simulation kernel and associated telemetry pipelines, used to validate scaling laws prior to physical construction.

Fields of Study & Subjects

Relativity and Gravitational Theory Cosmology and Gravitation Theories Advanced Mathematical Theories and Applications

Publication details

Publication date
1 January 2026
Language
EN
Document type
Preprint