Paper 6 Structure Formation and Gravitation from Vacancy Condensation
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2025
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| author | Sarnowski, Michael |
| author_facet | Sarnowski, Michael |
| contents | <p>We propose that large-scale cosmic structure and gravitation emerge from the condensation<br> and redistribution of vacancy defects in a discrete, rotational spacetime lattice composed of<br> Holospheres. Building upon the Holosphere Theory’s model of the electron as a triplet of<br> phase-coherent dark bosons, we extend this framework to cosmological scales. Gravitational<br> attraction is reinterpreted as a manifestation of long-range spin tension gradients induced by<br> mass-concentrated defect clusters. Structure formation, from stars to galaxies to voids, arises<br> through the collective dynamics of orbital phase collapse and lattice strain relaxation.<br> Rather than invoking continuous fields or inflationary fluctuations, this model grounds mass<br> and curvature in topological imbalances of orbital packing. We derive the equivalent of gravita<br>tional attraction from radial alignment gradients and angular momentum propagation through<br> the Holosphere substrate. This approach resolves the classical field-particle duality by replacing<br> spacetime curvature with lattice reconfiguration, and challenges multiverse interpretations by<br> treating decoherence as defect condensation into stable macroscopic formations.</p> |
| format | Recurso digital |
| id | zenodo_https___doi_org_10_5281_zenodo_15781531 |
| institution | Zenodo |
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| publishDate | 2025 |
| publisher | Zenodo |
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| spellingShingle | Paper 6 Structure Formation and Gravitation from Vacancy Condensation Sarnowski, Michael Holosphere Theory Angular Coherence Coherence Strain Gravitational Analog Structure Formation Galaxy Rotation Curves Redshift Decomposition Time Dilation Vacancy defects Discrete Lattice cosmology Emergent Gravity Coherence Slope Lensing without dark matter Triadic Spin Discrete Spacetime Phase Propagation Radial Coherence velocity shift Non-expanding universe Quantum Geometry <p>We propose that large-scale cosmic structure and gravitation emerge from the condensation<br> and redistribution of vacancy defects in a discrete, rotational spacetime lattice composed of<br> Holospheres. Building upon the Holosphere Theory’s model of the electron as a triplet of<br> phase-coherent dark bosons, we extend this framework to cosmological scales. Gravitational<br> attraction is reinterpreted as a manifestation of long-range spin tension gradients induced by<br> mass-concentrated defect clusters. Structure formation, from stars to galaxies to voids, arises<br> through the collective dynamics of orbital phase collapse and lattice strain relaxation.<br> Rather than invoking continuous fields or inflationary fluctuations, this model grounds mass<br> and curvature in topological imbalances of orbital packing. We derive the equivalent of gravita<br>tional attraction from radial alignment gradients and angular momentum propagation through<br> the Holosphere substrate. This approach resolves the classical field-particle duality by replacing<br> spacetime curvature with lattice reconfiguration, and challenges multiverse interpretations by<br> treating decoherence as defect condensation into stable macroscopic formations.</p> |
| title | Paper 6 Structure Formation and Gravitation from Vacancy Condensation |
| topic | Holosphere Theory Angular Coherence Coherence Strain Gravitational Analog Structure Formation Galaxy Rotation Curves Redshift Decomposition Time Dilation Vacancy defects Discrete Lattice cosmology Emergent Gravity Coherence Slope Lensing without dark matter Triadic Spin Discrete Spacetime Phase Propagation Radial Coherence velocity shift Non-expanding universe Quantum Geometry |
| url | https://doi.org/10.5281/zenodo.15781531 |