Physics & Spacepreprint2026-09-06

Balance–Field Theory (BFG): A Universal Structural Framework for Trinitarian Formation, Recursive Persistence, Emergent Spacetime, Gravity, and Dark-Sector Dynamics

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Abstract

This work presents the reviewed and mathematically corrected Strong Form of the Balance–Field Theory (BFG) as a unified structural research program for formation, recursive persistence, emergent spacetime, gravity, dark-sector response, and strong-field saturation. The framework begins from a pre-polar Level-0 architecture defined through difference capacity, coherence capacity, and neutral admissibility. Stable structures arise through trinitarian formation, neutral mediation, admissible closure, and bounded recursive persistence. A positive master closure geometry and the complementary neutral transforms CN(Y)=(I+Y)−1C_N(Y)=(I+Y)^{-1} and BN(Y)=Y(I+Y)−1B_N(Y)=Y(I+Y)^{-1} provide a common mathematical backbone from which different physical regimes are represented through sector projections, boundary conditions, spectral structures, and recursive readout maps. The reviewed formulation distinguishes explicitly between definitions, axioms, mathematical theorems, conditional theorems, model completions, and empirical hypotheses. It includes corrected constructions for Level-0 formation, Lorentz transport, recursive termination, and gravitational normalization, and develops conditional connections to emergent local spacetime geometry, gravitational dynamics, dark-matter-like relational response, dark-energy-like terminal residuals, and strong-field behavior. The central universality hypothesis is that these apparently different physical regimes may be realizations of one underlying admissible closure mathematics rather than independent fundamental mechanisms. The framework therefore aims at structural universality without arbitrary sector-by-sector retuning. BFG is presented here as a falsifiable theoretical framework and research program, not as an empirically established replacement for existing fundamental physics.

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View paper (DOI)Open access versionOpenAlexZenodo (CERN European Organization for Nuclear Research)Published 2026-09-06

Authors: Marcel Wende