theory of dark mather

This paper introduces an alternative, non-exotic framework for dark matter (DM) and black hole interiors, modeling them not as novel elementary particles or infinitely dense singularities, but as an extreme phase-shifted energy state of baryonic matter. We propose that under critical energy saturation (\(E ≥ Ebirth\)), particles experience a physical shock state, ceasing linear kinetic displacement and entering a regime of violent, localized spatial vibration. This state induces extreme local relativistic time dilation (\(Δ t → 0\)), freezing the particle's rest frame and rendering it electromagnetically inert while preserving its gravitational footprint. Furthermore, this model is expanded to encompass a dynamic mass-volume formulation mapping energy density (\(ρ E\)) against effective volume (\(Veff\)), alongside a novel thermodynamic view of sub-photonic friction. Finally, we calibrate this model against observational datasets from the ESA Planck satellite, CERN’s Large Hadron Collider (LHC), and the Event Horizon Telescope (EHT).