Cosmic Domains, Early Structure, and Black-Hole Regulation | Volume 7 of Quantum Model of the Universe: Complete Edition
Year: 2026
Type: article
Abstract: Preprint. This manuscript is a preprint and has not been peer-reviewed. It is currently under consideration for publication in a peer-reviewed journal. The work may be purchased directly from the author: [email protected] ABSTRACT We present a model-independent structural theory of late-time cosmic acceleration. We provethat (i) the timing of the transition to accelerated expansion, (ii) the admissible magnitude of theeffective acceleration-driving contribution, and (iii) the tracking of the vacuum scale to the cosmological horizon are not contingent features of microphysical models but unavoidable consequencesof generally covariant cosmological dynamics combined with empirical boundary conditions. Theresults close the explanatory space of late-time acceleration at the level of relativistic cosmology andshift the remaining open problem entirely to the domain of microscopic vacuum structure.Late-time cosmic acceleration is commonly interpreted as evidence for new dynamical degrees of freedom, finelytuned parameters, or modifications of gravitational physics. In this series-synthesis work, we demonstrate that neitherthe timing, nor the magnitude, nor the characteristic scale of cosmic acceleration is contingent on microphysical modelbuilding.Instead, we show that accelerated expansion is a structural inevitability of generally covariant cosmological dynamics once three empirically established conditions are imposed: the existence of a prolonged matter-dominated era,covariant conservation of energy–momentum, and the finite observational accessibility of cosmic history.We prove that the transition to acceleration must occur at redshift of order unity, that the effective accelerationdriving contribution is constrained to a narrow admissible window around the present matter density, and that anygravitationally active vacuum contribution compatible with cosmic history must track the cosmological horizon scale.These results are independent of the microscopic origin of the vacuum sector.Together, they provide a closed, model-independent explanation of late-time cosmic acceleration within relativisticcosmology, reframing the cosmological constant problem as a question of microscopic origin rather than macroscopicadmissibility. Field: Theoretical Physics / Fundamental Physics / Particle Physics / High-Energy Physics / Experimental Particle Physics / Collider Physics / Quantum Physics / Quantum Field Theory / Quantum Cosmology / Cosmology / Physical Cosmology / Precision Cosmology / Observational Cosmology / Astrophysics / Observational Astronomy / Space Astronomy / Early-Universe Physics / Inflationary Cosmology / Large-Scale Structure of the Universe / Galaxy Formation and Evolution / Dark Matter Studies / Dark Energy Studies / Gravitational Physics / Relativistic Cosmology / Information Physics / Foundations of Physics / Mathematical Physics / Vacuum Physics / Fundamental Interactions / Standard Model Physics / Beyond Standard Model Physics / Scientific Observation and Measurement / James Webb Space Telescope Science / Cosmic Microwave Background Studies / Fundamental Constants and Physical Parameters. Author’s Note This monograph represents an independent research work of the author. All interpretations, structuralanalyses, and conclusions presented herein are solely those of the author and do not represent the officialpositions of any institutions, research collaborations, space agencies, laboratories, or observationalprograms mentioned in the textThe author expresses his deepest gratitude to the global scientific community whose discoveries,observations, experiments, theories, and decades of dedicated research made the creation of thesixteen-volume *Quantum Model of the Universe* possible. This work stands upon the collectiveachievements of thousands of scientists, engineers, mathematicians, astronomers, cosmologists, andphysicists whose contributions have expanded humanity’s understanding of reality. Special appreciationis extended to the scientific teams and institutions whose publicly available research, data archives,observational programs, and experimental results served as essential foundations for this monumentalstudy, including NASA, CERN, ESA, NSF NOIRLab, the European Southern Observatory (ESO), theMax Planck Society, the Kavli Institute network, SLAC National Accelerator Laboratory, Fermilab,and Brookhaven National Laboratory. The author also acknowledges the enduring contributions of theworld’s leading universities, including Harvard University, Massachusetts Institute of Technology (MIT),Stanford University, Princeton University, the University of Cambridge, the University of Oxford, theCalifornia Institute of Technology (Caltech), the University of Chicago, ETH Zurich, and ImperialCollege London. Important scientific foundations for this work were provided by major internationalresearch programs and collaborations, including DESI (Dark Energy Spectroscopic Instrument), theJames Webb Space Telescope (JWST), the Hubble Space Telescope, the Planck Mission, the Sloan DigitalSky Survey (SDSS), LIGO–Virgo–KAGRA, the Event Horizon Telescope (EHT), the Large HadronCollider (LHC), Euclid, and the Vera C. Rubin Observatory Legacy Survey of Space and Time (LSST).The author further expresses sincere gratitude to the many researchers whose published papers,experimental findings, and theoretical insights collectively form the intellectual foundation uponwhich this project was built. The first volumes of the *Quantum Model of the Universe* series arepublished by [River Publishers](https://riverpublishers.com). A limited number of printed volumes maybe obtained directly from the author of the monograph and project leader, **Sergey G. Kolesnyak**. Forinquiries regarding availability, academic cooperation, presentations, reviews, translations, or distributionopportunities, please contact: [email protected] ABOUT Volume 7 of the Quantum Model of the Universe (QMU) research programme is devoted toCosmic Domains, Early Structure, and Black-Hole Regulation. It develops the multi-domain, early-structure,and compact-object regulation layer of the current sixteen-volume QMU architecture. Its purpose is to examinewhether statistical domain structure, high-redshift galaxy formation, dark-matter and gas scaling, black-hole growth,feedback, and compact nuclear environments can be treated as a controlled structural sequence without turningobservational anomalies into unconstrained claims of new microphysics.The volume is organized around the separation between the standard source-supported baseline and theproposed model-specific layer. Semiclassical tunnelling language, domain statistics, halo dynamics, high-redshiftgalaxy kinematics, gas inflow, angular-momentum transport, turbulence, chemical enrichment, accretion physics,feedback regulation, Hawking-evaporation estimates, and scaling relations remain the comparison framework.QMU-oriented domain-transfer, inheritance, structural-regulation, and vacuum-coupling terms are admitted onlywhere they remain mathematically bounded, observationally exposed, reducible to the relevant conventionaldescription, and separable from selection effects, ordinary parameter degeneracy, and unsupported extrapolation.A central methodological feature of Volume 7 is the use of collapse criteria across several astrophysical regimes.A multi-domain or black-hole-regulation channel is not retained merely because a formal term can be written. Ifstandard halo modelling is sufficient, if high-redshift kinematic inference is dominated by selection or resolutionlimits, if accretion and feedback relations already explain the observed scaling, if the proposed term lacks a finiteobservable discriminator, or if statistical preference over the standard baseline is absent, the local model-specificconstruction collapses to the corresponding conventional explanation.The volume therefore treats early structure and black-hole regulation as testable structural problems ratherthan as rhetorical evidence for a predetermined mechanism. Multi-domain inheritance, bubble-transfer language,external mass effects, early rotation-curve diagnostics, mature high-redshift disks, compact protogalaxies, chemicalscaling, AGN coupling, micro-black-hole limits, and dense nuclear-core environments are analyzed as possibleadmissibility channels constrained by the same rule: standard astrophysics and cosmology must remain recoverable,and any proposed structural layer must be distinguishable from ordinary modelling freedom.The final result of Volume 7 is a controlled map of multi-domain cosmology and early astrophysical regulationwithin the QMU architecture. It does not claim that early galaxies or black holes have been explained fromfirst principles, nor that standard galaxy-formation or black-hole-growth models have been replaced. It placesthose models as the limiting and recovery cases while examining which bounded structural extensions mayremain meaningful targets for further mathematical, observational, and reviewer-controlled evaluation. In this form,Volume 7 supplies the bridge from the acceleration framework of Volume 6 to the later observational, planetary,observer-accessibility, and global-consequence layers of the series.General Structure and Conceptual Framework of Volume 7 Cosmic Domains, Early Structure, and Black-Hole RegulationPurpose and Position of Volume 7 Volume 7 is the multi-domain, early-structure, and black-hole-regulation volume of the currentsixteen-volume Quantum Model of the Universe (QMU) architecture. It follows the late-time accelerationand vacuum-structure layer established in Volume 6 and develops the transition from global cosmologicaladmissibility to early structure formation, galaxy assembly, compact high-redshift systems, andblack-hole feedback. Its task is to analyze domain statistics, inherited structure, high-redshift rotationand disk diagnostics, gas inflow, turbulence, ch
Author: Kolesnyak, Serge
Language: English
Subfield: Astronomy and Astrophysics
Field: Physics and Astronomy
Domain: Physical Sciences
Open Access status: green
OpenAlex ID: W7127987713
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