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| Format: | Recurso digital |
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Zenodo
2025
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| Online Access: | https://doi.org/10.5281/zenodo.15635420 |
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Table of 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>