Electromagnetic Interactions in the Dual-Field Interface Model: Waves as the Membrane Weld (Version 1.2)
Abstract
This paper presents Version 1.2 of an extension to the Dual-Field Interface Model (DFIM), proposing a unified framework where Electromagnetism (EM) and Gravity are intrinsically linked via mechanical wave dynamics. Building on the core thesis of DFIM v3.3 (which derives gravity as a "mechanical weld" on a spacetime membrane), this extension identifies the physical origin of that weld. We propose that the interface stiffness (κ) arises from a resonant feedback loop of counter-propagating electromagnetic waves between the positive and negative bulk fields, reaching a dynamic equilibrium to prevent infinite growth. Key theoretical advancements in this version: The "Weld" as Resonance: Gravity is reinterpreted as a standing wave pattern generated by "mutual wave feeding" between the bulk fields. Where resonance is strong (dense matter), the membrane stiffens (Gravity), governed by a decay-limited differential equation (κ˙=Feeding−Decay). Physical Basis for Leakage: The Landau-Zener tunneling mechanism (fully aligned with DFIM v3.3) is explained physically: rapid density changes (∣ρ˙∣) disrupt the wave resonance, breaking the "weld" and allowing information leakage. EM-Gravity Unification: Incorporates a non-minimal coupling term ξRFμνFμν into the covariant Lagrangian, effectively unifying the forces in a Lorentz-invariant framework without requiring extra spatial dimensions. Observational Signatures: Predicts specific electromagnetic anomalies, such as enhanced polarization in Gravitational Lensing and "dark" EM fields in cosmic voids. This paper serves as a companion extension to the main DFIM thesis, offering a mechanical resolution to the "Fine-Tuning" of the gravitational coupling constant. Keywords Dual-Field Interface Model, DFIM, Electromagnetism, Unified Field Theory, Semiclassical Gravity, Landau-Zener Tunneling, Spacetime Membrane, Black Hole Information Paradox, Wave Resonance, Modified Gravity.
Fields of Study & Subjects
Relativity and Gravitational Theory
Cosmology and Gravitation Theories
Black Holes and Theoretical Physics
Publication details
- Journal / source
- Zenodo (CERN European Organization for Nuclear Research)
- Publication date
- 16 January 2026