Preprint - Mass-Energy Condensation Theory (3).pdf

This paper introduces the Mass-Energy Condensation (MEC) model, a novel approach to gravitational field behaviour that diverges from Newtonian mechanics and General Relativity. Rather than attributing gravity to spacetime curvature or mass alone, the MEC model treats gravity as a physical field effect driven by mass-energy density and structural compaction. Using publicly available astrophysical data, this study applies power-law regression analysis to identify consistent patterns between mass, radius, and density across a wide range of celestial objects. The findings suggest that gravitational field strength scales with the cube of density (g ∝ ρ³), particularly in post-fusion bodies such as white dwarfs and neutron stars. This nonlinear relationship offers an alternative explanation for intense gravitational phenomena without invoking singularities or curved spacetime. The MEC model has potential implications for understanding stellar evolution, gravitational lensing, cosmic expansion, and galaxy formation. A key advantage of this framework is its classical field interpretation, which may facilitate integration with quantum field theory and simplify astrophysical simulations. The paper outlines future research directions, including simulation-based testing, comparative modelling, and observational analysis of compact objects. By reframing gravity as an emergent, density-gradient-driven field, the MEC model provides a testable and conceptually grounded alternative to current gravitational theories.