Polished Tunnel Dynamics (PTD): A Rigorous, Falsifiable, and Observationally Anchored Framework for Celestial Mechanics in a Dense Cosmic Fabric
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2026
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| _version_ | 1866901577132933120 |
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| author | Shibah, Sami Rashid Mohammed |
| author_facet | Shibah, Sami Rashid Mohammed |
| contents | <p>Polished Tunnel Dynamics (PTD) presents a mathematically consistent and empirically testable framework that reinterprets celestial mechanics and atmospheric retention within a dense, reticular cosmic fabric. Diverging from the geometric abstraction of curved spacetime, PTD models the intergalactic medium as a viscous-elastic fabric with fermion-selective interactions via a Yukawa coupling, while allowing transparent photon propagation. Orbital polishing emerges primarily from kinematic shear stress, supplemented by magnetism as a secondary mechanism. Atmospheric confinement is achieved through a soft exponential wall potential within the Boltzmann distribution, and gravitational lensing arises from local variations in the fabric's refractive index, stemming from density gradients and a position-dependent speed of light \(c = \sqrt{K_{\text{fabric}} / \rho_{\text{fabric}}}\).</p> <p>Derivations maintain dimensional consistency, thermodynamic grounding, and alignment with observational data from sources such as JPL DE440 ephemerides, SDSS/DESI cosmic web catalogs, and NRLMSISE-00 atmospheric models. Employing high-dimensional Bayesian inference, Monte Carlo sensitivity analyses, and reproducible simulations—with graphical outputs generated via PGFPlots—PTD yields falsifiable predictions, including the Shibah-Effect (fabric resistance gradient). As a mechanistically detailed alternative paradigm, PTD aligns with Lorentz invariance, stable orbits around unmagnetized planets, and observed lensing. While conceptually akin to MOND, PTD addresses its limitations through fabric-based mechanics. PTD's minimal VSL is consistent with Planck constraints (\(\Delta c/c < 10^{-5}\)) and recent cosmic distance duality relation tests (\(b \approx 0\) within 2\(\sigma\)).</p> |
| format | Recurso digital |
| id | zenodo_https___doi_org_10_5281_zenodo_18640980 |
| institution | Zenodo |
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| publishDate | 2026 |
| publisher | Zenodo |
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| spellingShingle | Polished Tunnel Dynamics (PTD): A Rigorous, Falsifiable, and Observationally Anchored Framework for Celestial Mechanics in a Dense Cosmic Fabric Shibah, Sami Rashid Mohammed <p>Polished Tunnel Dynamics (PTD) presents a mathematically consistent and empirically testable framework that reinterprets celestial mechanics and atmospheric retention within a dense, reticular cosmic fabric. Diverging from the geometric abstraction of curved spacetime, PTD models the intergalactic medium as a viscous-elastic fabric with fermion-selective interactions via a Yukawa coupling, while allowing transparent photon propagation. Orbital polishing emerges primarily from kinematic shear stress, supplemented by magnetism as a secondary mechanism. Atmospheric confinement is achieved through a soft exponential wall potential within the Boltzmann distribution, and gravitational lensing arises from local variations in the fabric's refractive index, stemming from density gradients and a position-dependent speed of light \(c = \sqrt{K_{\text{fabric}} / \rho_{\text{fabric}}}\).</p> <p>Derivations maintain dimensional consistency, thermodynamic grounding, and alignment with observational data from sources such as JPL DE440 ephemerides, SDSS/DESI cosmic web catalogs, and NRLMSISE-00 atmospheric models. Employing high-dimensional Bayesian inference, Monte Carlo sensitivity analyses, and reproducible simulations—with graphical outputs generated via PGFPlots—PTD yields falsifiable predictions, including the Shibah-Effect (fabric resistance gradient). As a mechanistically detailed alternative paradigm, PTD aligns with Lorentz invariance, stable orbits around unmagnetized planets, and observed lensing. While conceptually akin to MOND, PTD addresses its limitations through fabric-based mechanics. PTD's minimal VSL is consistent with Planck constraints (\(\Delta c/c < 10^{-5}\)) and recent cosmic distance duality relation tests (\(b \approx 0\) within 2\(\sigma\)).</p> |
| title | Polished Tunnel Dynamics (PTD): A Rigorous, Falsifiable, and Observationally Anchored Framework for Celestial Mechanics in a Dense Cosmic Fabric |
| url | https://doi.org/10.5281/zenodo.18640980 |