Galactic Structure, Predicted Luminosity of Ancient Galaxies and Dark Matter Evolution in the Micro–Black-Hole Network Framework — A Follow-Up Study to The Algorithm of Existence (Physic Version, Zenodo 2026)

Galactic Structure, Predicted Luminosity of Ancient Galaxies and Dark Matter Evolution in the Micro–Black-Hole Network Framework — A Follow-Up Study to The Algorithm of Existence (Physic Version, Zenodo 2026) Introduction This article presents a detailed analysis of galactic structures, luminosities, and dark matter/energy properties within the framework of the micro–black-hole network model introduced in The Algorithm of Existence by Ali Moslemi Tabrizi. The book was published prior to the release of the South Korean and JWST observational datasets: on Zenodo (January 5, 2026, Physic Version v1.0, https://doi.org/10.5281/zenodo.18157930) and self-published on Amazon (Dec 27, 2025, 78 pages, ASIN B0GCV84GDY, https://a.co/d/ik1muLf). The model provides quantitative predictions regarding the hierarchical structure of galaxies, their baryonic mass limits, and the emergence of luminous early galaxies. These predictions have now been independently corroborated. Specifically, Chapters 3, 5, 7, 9, and 10 of the book anticipated the increase of effective micro–black-hole gravitational density near galactic centers, the atomic-scale analogies of galactic baryonic mass, and the gradual reduction of dark matter volume with galactic evolution. The motivation of this work is to demonstrate that the observed properties of ancient, high-redshift galaxies—particularly their unexpectedly high luminosities, baryonic content, and internal structural complexity—are fully consistent with this theoretical framework. By systematically comparing these predictions with the latest high-precision observations from JWST, JADES, PANORAMIC, and independent South Korean surveys, this article highlights the remarkable agreement between theory and data. These results underscore that galaxies follow scalable structural patterns analogous to atomic nuclei and periodic elements, demonstrating the predictive power of the micro–black-hole network model and its applicability to understanding both galactic evolution and cosmological phenomena. References Ali Moslemi Tabrizi, The Algorithm of Existence, Zenodo (January 5, 2026, Physic Version v1.0, https://doi.org/10.5281/zenodo.18157930) Self-published on Amazon (Dec 27, 2025, 78 pages, ASIN B0GCV84GDY, https://a.co/d/ik1muLf)

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Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-01-23
DOI
https://doi.org/10.5281/zenodo.18356125
Primary Topic
Astrophysical Phenomena and Observations
Type
article
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article

Galactic Structure, Predicted Luminosity of Ancient Galaxies and Dark Matter Evolution in the Micro–Black-Hole Network Framework — A Follow-Up Study to The Algorithm of Existence (Physic Version, Zenodo 2026)

Ali Moslemi tabrizi
Zenodo (CERN European Organization for Nuclear Research)
Astrophysical Phenomena and Observations
article

Galactic Structure, Predicted Luminosity of Ancient Galaxies and Dark Matter Evolution in the Micro–Black-Hole Network Framework — A Follow-Up Study to The Algorithm of Existence (Physic Version, Zenodo 2026)

Ali Moslemi tabrizi
article en

Abstract

Galactic Structure, Predicted Luminosity of Ancient Galaxies and Dark Matter Evolution in the Micro–Black-Hole Network Framework — A Follow-Up Study to The Algorithm of Existence (Physic Version, Zenodo 2026) Introduction This article presents a detailed analysis of galactic structures, luminosities, and dark matter/energy properties within the framework of the micro–black-hole network model introduced in The Algorithm of Existence by Ali Moslemi Tabrizi. The book was published prior to the release of the South Korean and JWST observational datasets: on Zenodo (January 5, 2026, Physic Version v1.0, https://doi.org/10.5281/zenodo.18157930) and self-published on Amazon (Dec 27, 2025, 78 pages, ASIN B0GCV84GDY, https://a.co/d/ik1muLf). The model provides quantitative predictions regarding the hierarchical structure of galaxies, their baryonic mass limits, and the emergence of luminous early galaxies. These predictions have now been independently corroborated. Specifically, Chapters 3, 5, 7, 9, and 10 of the book anticipated the increase of effective micro–black-hole gravitational density near galactic centers, the atomic-scale analogies of galactic baryonic mass, and the gradual reduction of dark matter volume with galactic evolution. The motivation of this work is to demonstrate that the observed properties of ancient, high-redshift galaxies—particularly their unexpectedly high luminosities, baryonic content, and internal structural complexity—are fully consistent with this theoretical framework. By systematically comparing these predictions with the latest high-precision observations from JWST, JADES, PANORAMIC, and independent South Korean surveys, this article highlights the remarkable agreement between theory and data. These results underscore that galaxies follow scalable structural patterns analogous to atomic nuclei and periodic elements, demonstrating the predictive power of the micro–black-hole network model and its applicability to understanding both galactic evolution and cosmological phenomena. References Ali Moslemi Tabrizi, The Algorithm of Existence, Zenodo (January 5, 2026, Physic Version v1.0, https://doi.org/10.5281/zenodo.18157930) Self-published on Amazon (Dec 27, 2025, 78 pages, ASIN B0GCV84GDY, https://a.co/d/ik1muLf)

Zenodo (CERN European Organization for Nuclear Research)
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Astrophysical Phenomena and Observations
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