Top-Quark–Triggered Dimensional Ascension: Black-Hole Formation as Local Nucleation of the Higher-Dimensional Bulk
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| Format: | Recurso digital |
| Language: | English |
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2025
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| _version_ | 1866901620462190592 |
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| author | Murali, Uthraa |
| author_facet | Murali, Uthraa |
| contents | <p>This preprint proposes that black-hole formation in stellar core collapse is not solely a classical gravitational process but the first known astrophysical mechanism capable of triggering a transition into a higher-dimensional bulk. The top quark, whose Compton wavelength lies close to the experimentally allowed size of an extra spatial dimension, is produced abundantly during the final ∼0.5 seconds of every successful core-collapse event.</p> <p>The paper argues that the transient top-quark energy density can exceed the higher-dimensional nucleation threshold, allowing the collapsing stellar core to form a locally nucleated five-dimensional bulk region. In this interpretation, the event horizon marks the interface between the observable (3+1)-dimensional brane and a permanently higher-dimensional interior.</p> <p>The framework is quantitatively consistent with dimensional-dependence results from higher-dimensional collapse studies, recent AdS5-brane cosmology models, and collider bounds on extra dimensions. The mechanism provides falsifiable signatures, including potential gravitational-wave ringdown echoes and supernova neutrino deviations.</p> <p>This work positions top-quark–driven core collapse as the first concrete microphysical realisation of “dimensional ascension”: a process in which a macroscopic baryonic object acquires access to an extra spatial dimension by reaching the maximum achievable energy density in 3+1 dimensions.</p> |
| format | Recurso digital |
| id | zenodo_https___doi_org_10_5281_zenodo_17894916 |
| institution | Zenodo |
| language | eng |
| publishDate | 2025 |
| publisher | Zenodo |
| record_format | zenodo |
| spellingShingle | Top-Quark–Triggered Dimensional Ascension: Black-Hole Formation as Local Nucleation of the Higher-Dimensional Bulk Murali, Uthraa top quark cosmology extra-dimensional gravity black-hole nucleation higher-dimensional bulk brane-world models gravitational-wave signatures core-collapse supernovae <p>This preprint proposes that black-hole formation in stellar core collapse is not solely a classical gravitational process but the first known astrophysical mechanism capable of triggering a transition into a higher-dimensional bulk. The top quark, whose Compton wavelength lies close to the experimentally allowed size of an extra spatial dimension, is produced abundantly during the final ∼0.5 seconds of every successful core-collapse event.</p> <p>The paper argues that the transient top-quark energy density can exceed the higher-dimensional nucleation threshold, allowing the collapsing stellar core to form a locally nucleated five-dimensional bulk region. In this interpretation, the event horizon marks the interface between the observable (3+1)-dimensional brane and a permanently higher-dimensional interior.</p> <p>The framework is quantitatively consistent with dimensional-dependence results from higher-dimensional collapse studies, recent AdS5-brane cosmology models, and collider bounds on extra dimensions. The mechanism provides falsifiable signatures, including potential gravitational-wave ringdown echoes and supernova neutrino deviations.</p> <p>This work positions top-quark–driven core collapse as the first concrete microphysical realisation of “dimensional ascension”: a process in which a macroscopic baryonic object acquires access to an extra spatial dimension by reaching the maximum achievable energy density in 3+1 dimensions.</p> |
| title | Top-Quark–Triggered Dimensional Ascension: Black-Hole Formation as Local Nucleation of the Higher-Dimensional Bulk |
| topic | top quark cosmology extra-dimensional gravity black-hole nucleation higher-dimensional bulk brane-world models gravitational-wave signatures core-collapse supernovae |
| url | https://doi.org/10.5281/zenodo.17894916 |