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| Format: | Recurso digital |
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Zenodo
2026
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| Accès en ligne: | https://doi.org/10.5281/zenodo.19416859 |
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Table des matières:
- <p>Modern physics, grounded in General Relativity (GR) and the ΛCDM cosmological model,<br>has achieved extraordinary predictive success while simultaneously introducing two<br>dominant but unresolved constructs: dark matter and dark energy. These constructs arise<br>to reconcile discrepancies in galactic rotation, gravitational binding, and cosmological<br>expansion, yet remain undetected despite decades of focused experimental effort.<br>At smaller scales, quantum electrodynamics (QED) similarly provides precise predictions<br>while leaving open a fundamental conceptual question highlighted in a well-known<br>exchange involving Richard Feynman: Where was the energy before emission? In standard<br>theory, photons are created during atomic transitions without pre-existing physical form,<br>and large-scale phenomena such as relativistic jets are treated as emergent outputs of<br>dynamic processes rather than releases of stored physical structure.<br>This paper proposes that these issues share a common origin: the absence of a physically<br>real, energy-storing medium in current theory. Within the Space-Phase (SP3) framework,<br>energy is not abstractly conserved within equations alone but is physically stored as<br>conditioning of a medium characterized by stiffness, structure, and memory. Emission—<br>whether as photons or relativistic jets—is then understood as the release of this stored<br>medium energy.<br>This reinterpretation yields a unified explanation across scales and directly addresses<br>major open problems. Inertia and galactic rotation arise from medium-stored energy,<br>obviating the need for dark matter. Cosmological redshift includes a propagationdependent energy loss (“light tax”), reducing or eliminating the need for dark energy. Binary<br>capture is explained as direct kinetic energy transfer into the medium, removing reliance on<br>special dissipative mechanisms.<br>By replacing multiple unresolved constructs with a single physically grounded mechanism,<br>SP3 satisfies Occam’s razor and provides testable discriminators distinguishing it from GR<br>+ ΛCDM.</p>