<b>Reframing Quantum Mechanics Through Energy-Density Gradients (EDGs): A Deterministic Model of Structured Redistribution</b>

This paper introduces a novel reinterpretation of quantum mechanics through the framework of Energy-Density Gradients (EDGs), forming the basis of the MEG (Mass-Energy-Gradient) model. Rather than treating quantization, tunneling, and entanglement as fundamental uncertainties, the MEG model presents these effects as outcomes of structured energy redistribution constrained by boundary conditions in space. The paper reformulates core quantum phenomena—including wavefunction collapse, Bell violations, the Casimir effect, and the Quantum Zeno effect—as deterministic consequences of EDG interactions. The model offers testable predictions, aligns with observed deviations in tunneling and resonance behavior, and proposes a unified framework for integrating quantum behavior with gravity and vacuum energy structure. This approach challenges probabilistic interpretations by revealing how structured constraints lead to quantized, resonant, and highly ordered outcomes.