DUT Quantum Simulator v4.0: Predicting High-Redshift Galaxies (Z > 15) via Non-Singular Continuation of General Relativity
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2025
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| _version_ | 1866902016417071104 |
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| author | Almeida, Joel |
| author_facet | Almeida, Joel |
| contents | <h2>Abstract</h2> <p>This module of the DUT Quantum Simulator (v3.0) introduces a predictive cosmological framework based on a non-singular continuation of General Relativity. Developed within the Dead Universe Theory (DUT), this simulator mathematically forecasts the imminent discovery of gravitationally fossilized galaxies with redshifts <strong>z > 15</strong>, beyond the explanatory limits of ΛCDM. Using a regularized curvature model and entropy-gradient geodesics, the DUT reproduces structure formation without inflation, singularities, or dark energy. The simulator predicts <strong>SRDs (Stellar Remnant Domains)</strong> — massive, low-entropy galaxies that formed <200 Myr after the cosmic turning point — which should become observable by <strong>Roman Space Telescope</strong>, <strong>ELT (Extremely Large Telescope)</strong>, and <strong>JWST extended missions</strong> by <strong>2030</strong>. It is the only known simulator equipped with a <strong>self-refutation module</strong>, capable of rejecting its own predictions if observations contradict its metric evolution. Far from abandoning Einsteinian physics, this platform formalizes a continuous, horizonless geometry as the natural endpoint of relativistic gravity. This work represents not only a computational tribute to Einstein’s legacy but also a bold mathematical step into the cosmology of the post-singularity universe.</p> <p> </p> |
| format | Recurso digital |
| id | zenodo_https___doi_org_10_5281_zenodo_15825357 |
| institution | Zenodo |
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| publishDate | 2025 |
| publisher | Zenodo |
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| spellingShingle | DUT Quantum Simulator v4.0: Predicting High-Redshift Galaxies (Z > 15) via Non-Singular Continuation of General Relativity Almeida, Joel Dead Universe Theory · Quantum Cosmology · Non-Singular Spacetime · Redshift Prediction · Gravitational Entropy · Early Galaxy Formation · Unified Relativity · DUT Quantum Simulator <h2>Abstract</h2> <p>This module of the DUT Quantum Simulator (v3.0) introduces a predictive cosmological framework based on a non-singular continuation of General Relativity. Developed within the Dead Universe Theory (DUT), this simulator mathematically forecasts the imminent discovery of gravitationally fossilized galaxies with redshifts <strong>z > 15</strong>, beyond the explanatory limits of ΛCDM. Using a regularized curvature model and entropy-gradient geodesics, the DUT reproduces structure formation without inflation, singularities, or dark energy. The simulator predicts <strong>SRDs (Stellar Remnant Domains)</strong> — massive, low-entropy galaxies that formed <200 Myr after the cosmic turning point — which should become observable by <strong>Roman Space Telescope</strong>, <strong>ELT (Extremely Large Telescope)</strong>, and <strong>JWST extended missions</strong> by <strong>2030</strong>. It is the only known simulator equipped with a <strong>self-refutation module</strong>, capable of rejecting its own predictions if observations contradict its metric evolution. Far from abandoning Einsteinian physics, this platform formalizes a continuous, horizonless geometry as the natural endpoint of relativistic gravity. This work represents not only a computational tribute to Einstein’s legacy but also a bold mathematical step into the cosmology of the post-singularity universe.</p> <p> </p> |
| title | DUT Quantum Simulator v4.0: Predicting High-Redshift Galaxies (Z > 15) via Non-Singular Continuation of General Relativity |
| topic | Dead Universe Theory · Quantum Cosmology · Non-Singular Spacetime · Redshift Prediction · Gravitational Entropy · Early Galaxy Formation · Unified Relativity · DUT Quantum Simulator |
| url | https://doi.org/10.5281/zenodo.15825357 |