The Dynamic Background Hypothesis v5.0 Beta: A Unified Pre-Geometric Framework for Gravity, Matter, and Structural Mass Hierarchies
Abstract
The Dynamic Background Hypothesis Abstract: We present the Beta version of the Dynamic Background Hypothesis (DBH) v5.0, a unified field framework where spacetime, matter, and all fundamental interactions ($U(1) \times SU(2) \times SU(3)$) are consistently modeled as emergent phenomena within a single relativistic nematic superfluid substrate. This release completes the unification of the mass sector, demonstrating that mass hierarchies and structural constants emerge from first-principles vacuum rheology rather than from free parameters. Key breakthroughs included in this version: Mass Hierarchy & Natural Units: Identification of the electron as the natural unit of mass ($M_e \approx 1/\phi$), establishing the functional zero of the substrate’s energy scale. Structural Mass Ratios: Emergence of the proton–electron ratio (~1836) as a consequence of geometric extension and confinement rigidity, rather than constituent mass addition. Law of Vacuum Containment: Formalization of mass as the integrated energy debt required to stabilize topological defects below the substrate’s rupture threshold. Dimensional Evasion Mechanism: Demonstration that the hadronic scale jump ($\sim 10^3$) arises from a transition in effective stress dimensionality, from 0D (point-like) to 1D (string-like) configurations. Electroweak & Strong Unification: Derivation of Maxwell’s equations, $SU(2)$ weak symmetry via spinor holonomy, and $SU(3)$ color confinement via the rheological "freezing" of the vacuum (Flux Tubes). Structural Invariants: Computational validation of a bare elastic invariant (~79.00) with sensitivity below 0.13% under variations of vacuum stiffness ($\beta$) and confinement ($\sigma$). This version provides extensive computational validation across multiple physical regimes, establishing the DBH as a self-consistent, predictive, and thermodynamically grounded approach to fundamental physics.
Fields of Study & Subjects
Earth Systems and Cosmic Evolution
Appalachian Studies and Mathematics
Technology in Education and Healthcare
Publication details
- Journal / source
- Zenodo (CERN European Organization for Nuclear Research)
- Publication date
- 11 January 2026
- Language
- EN
- Document type
- Preprint