Interpretative Consequences of Open Vacuum Dynamics: Atomic Stability, Binding, Reactivity, and Mass in the QGT:IR Framework
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2026
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| _version_ | 1866902087233699840 |
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| author | Fuertes Oliva, Martín |
| author_facet | Fuertes Oliva, Martín |
| contents | <p>The Quantum Gravity Theory based on Inverted Relativity (QGT:IR) is formulated<br>as an effective macroscopic framework in which all physical systems are treated as<br>open systems interacting with a structured physical vacuum. Within this framework, a<br>number of universal properties have been derived, including spectral relaxation toward<br>dynamical attractors, stability hierarchies governed by Dual Spectral Resonance,<br>vacuum-induced fluctuations, and emergent macroscopic irreversibility.<br>The present article does not introduce new derivations, nor does it modify the<br>established mathematical structure of quantum mechanics, quantum electrodynamics,<br>or the Standard Model. Instead, it explores whether several well-known microscopic<br>phenomena—such as atomic stability, bound states, chemical reactivity, and mass—can<br>be coherently interpreted in light of the universal properties already derived within the<br>QGT:IR framework.<br>A strict methodological distinction is maintained throughout between results that<br>are derived directly from the framework and interpretations that provide ontological<br>or conceptual insight without yielding new quantitative predictions. All microscopic<br>Hamiltonians, interaction terms, spectra, and reaction mechanisms remain those of<br>established theories. The contribution of this work is therefore conceptual rather than<br>predictive, aiming to provide a unified physical interpretation grounded in open-system<br>dynamics and vacuum structure while respecting the domain of validity of existing<br>microscopic physics.</p> |
| format | Recurso digital |
| id | zenodo_https___doi_org_10_5281_zenodo_18867419 |
| institution | Zenodo |
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| publishDate | 2026 |
| publisher | Zenodo |
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| spellingShingle | Interpretative Consequences of Open Vacuum Dynamics: Atomic Stability, Binding, Reactivity, and Mass in the QGT:IR Framework Fuertes Oliva, Martín <p>The Quantum Gravity Theory based on Inverted Relativity (QGT:IR) is formulated<br>as an effective macroscopic framework in which all physical systems are treated as<br>open systems interacting with a structured physical vacuum. Within this framework, a<br>number of universal properties have been derived, including spectral relaxation toward<br>dynamical attractors, stability hierarchies governed by Dual Spectral Resonance,<br>vacuum-induced fluctuations, and emergent macroscopic irreversibility.<br>The present article does not introduce new derivations, nor does it modify the<br>established mathematical structure of quantum mechanics, quantum electrodynamics,<br>or the Standard Model. Instead, it explores whether several well-known microscopic<br>phenomena—such as atomic stability, bound states, chemical reactivity, and mass—can<br>be coherently interpreted in light of the universal properties already derived within the<br>QGT:IR framework.<br>A strict methodological distinction is maintained throughout between results that<br>are derived directly from the framework and interpretations that provide ontological<br>or conceptual insight without yielding new quantitative predictions. All microscopic<br>Hamiltonians, interaction terms, spectra, and reaction mechanisms remain those of<br>established theories. The contribution of this work is therefore conceptual rather than<br>predictive, aiming to provide a unified physical interpretation grounded in open-system<br>dynamics and vacuum structure while respecting the domain of validity of existing<br>microscopic physics.</p> |
| title | Interpretative Consequences of Open Vacuum Dynamics: Atomic Stability, Binding, Reactivity, and Mass in the QGT:IR Framework |
| url | https://doi.org/10.5281/zenodo.18867419 |