Interpretative Consequences of Open Vacuum Dynamics: Atomic Stability, Binding, Reactivity, and Mass in the QGT:IR Framework

The Quantum Gravity Theory based on Inverted Relativity (QGT:IR) is formulatedas an effective macroscopic framework in which all physical systems are treated asopen systems interacting with a structured physical vacuum. Within this framework, anumber of universal properties have been derived, including spectral relaxation towarddynamical attractors, stability hierarchies governed by Dual Spectral Resonance,vacuum-induced fluctuations, and emergent macroscopic irreversibility.The present article does not introduce new derivations, nor does it modify theestablished mathematical structure of quantum mechanics, quantum electrodynamics,or the Standard Model. Instead, it explores whether several well-known microscopicphenomena—such as atomic stability, bound states, chemical reactivity, and mass—canbe coherently interpreted in light of the universal properties already derived within theQGT:IR framework.A strict methodological distinction is maintained throughout between results thatare derived directly from the framework and interpretations that provide ontologicalor conceptual insight without yielding new quantitative predictions. All microscopicHamiltonians, interaction terms, spectra, and reaction mechanisms remain those ofestablished theories. The contribution of this work is therefore conceptual rather thanpredictive, aiming to provide a unified physical interpretation grounded in open-systemdynamics and vacuum structure while respecting the domain of validity of existingmicroscopic physics.