Black Hole Ignition: Bias-Triggered Universe Emergence and the Photon–Radiation Record_v1.3
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2025
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| _version_ | 1866902286092992512 |
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| author | Birinci, Yasin |
| author_facet | Birinci, Yasin |
| contents | <p>Here we explore an alternative: the black hole (BH) ignition hypothesis. Instead of a unique, global creation event, universes are ignited when gravitational collapse accumulates sufficient matter and radiation at a central node (the classical singularity).</p> <p>This model is motivated by three strands:</p> <ul> <li>(i) the observed baryon-to-photon ratio ($\eta \approx 6 \times 10^{-10}$) and the enormous photon inventory in the CMB,</li> <li>(ii) quantum-gravity arguments that replace singularities with finite cores and allow bounce/nucleation behavior, and</li> <li>(iii) observational evidence that our universe shows no continual feed from a parent (CMB isotropy), favoring sealed, one-shot ignitions rather than persistent channels.</li> </ul> <p><span>The paper proceeds as follows:</span></p> <ul> <li><strong><span>Section 3</span></strong><span> develops the physical picture of the black-hole node: photon capture, geometric focusing, the singular dot as a photon–matter capacitor, and quantum-gravity resolution of infinite curvature into a finite core.</span></li> <li><strong><span>Section 4</span></strong><span> formalizes bias and the ignition criterion.</span></li> <li><strong><span>Section 5</span></strong><span> presents quantitative bookkeeping (the photon–baryon table) and compares energy and number budgets with the CMB.</span></li> <li><strong><span>Section 5a</span></strong><span> addresses energy conservation in the BH–bias ignition framework, showing how stored singularity energy is partitioned into matter, radiation, and vacuum energy without violating conservation laws (Table 2).<br><strong>Section 5b</strong> vacuum Energy and the Expanding Reservoir<br><strong>Section 5c </strong>cosmic Acceleration and the External Vacuum Analogy</span></li> <li><strong><span>Section 6</span></strong><span> outlines predictions and falsifiability, including observational tests and possible signatures (e.g., residual radiation, galaxy spin alignments).</span></li> <li><strong><span>Section 7</span></strong><span> integrates the model with existing cosmological frameworks (ΛCDM, LQG bounce, Einstein–Cartan, BH cosmology).</span></li> <li><strong><span>Section 8</span></strong><span> explores physical and philosophical implications, including black holes as cosmic wombs, radiation as bias ledger, and one-way generational chains.</span></li> <li><strong><span>Section 9</span></strong><span> concludes.</span></li> </ul> <div> </div> |
| format | Recurso digital |
| id | zenodo_https___doi_org_10_5281_zenodo_17079319 |
| institution | Zenodo |
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| publishDate | 2025 |
| publisher | Zenodo |
| record_format | zenodo |
| spellingShingle | Black Hole Ignition: Bias-Triggered Universe Emergence and the Photon–Radiation Record_v1.3 Birinci, Yasin Photons Vaccum Vacuum Fluctuations Radiation Black Hole Matter Anti Matter Plasma baryons <p>Here we explore an alternative: the black hole (BH) ignition hypothesis. Instead of a unique, global creation event, universes are ignited when gravitational collapse accumulates sufficient matter and radiation at a central node (the classical singularity).</p> <p>This model is motivated by three strands:</p> <ul> <li>(i) the observed baryon-to-photon ratio ($\eta \approx 6 \times 10^{-10}$) and the enormous photon inventory in the CMB,</li> <li>(ii) quantum-gravity arguments that replace singularities with finite cores and allow bounce/nucleation behavior, and</li> <li>(iii) observational evidence that our universe shows no continual feed from a parent (CMB isotropy), favoring sealed, one-shot ignitions rather than persistent channels.</li> </ul> <p><span>The paper proceeds as follows:</span></p> <ul> <li><strong><span>Section 3</span></strong><span> develops the physical picture of the black-hole node: photon capture, geometric focusing, the singular dot as a photon–matter capacitor, and quantum-gravity resolution of infinite curvature into a finite core.</span></li> <li><strong><span>Section 4</span></strong><span> formalizes bias and the ignition criterion.</span></li> <li><strong><span>Section 5</span></strong><span> presents quantitative bookkeeping (the photon–baryon table) and compares energy and number budgets with the CMB.</span></li> <li><strong><span>Section 5a</span></strong><span> addresses energy conservation in the BH–bias ignition framework, showing how stored singularity energy is partitioned into matter, radiation, and vacuum energy without violating conservation laws (Table 2).<br><strong>Section 5b</strong> vacuum Energy and the Expanding Reservoir<br><strong>Section 5c </strong>cosmic Acceleration and the External Vacuum Analogy</span></li> <li><strong><span>Section 6</span></strong><span> outlines predictions and falsifiability, including observational tests and possible signatures (e.g., residual radiation, galaxy spin alignments).</span></li> <li><strong><span>Section 7</span></strong><span> integrates the model with existing cosmological frameworks (ΛCDM, LQG bounce, Einstein–Cartan, BH cosmology).</span></li> <li><strong><span>Section 8</span></strong><span> explores physical and philosophical implications, including black holes as cosmic wombs, radiation as bias ledger, and one-way generational chains.</span></li> <li><strong><span>Section 9</span></strong><span> concludes.</span></li> </ul> <div> </div> |
| title | Black Hole Ignition: Bias-Triggered Universe Emergence and the Photon–Radiation Record_v1.3 |
| topic | Photons Vaccum Vacuum Fluctuations Radiation Black Hole Matter Anti Matter Plasma baryons |
| url | https://doi.org/10.5281/zenodo.17079319 |