Primary Fields, Quantum Geometry, and the Architecture of the Early Universe | Volume 5 of Quantum Model of the Universe: Complete Edition

Preprint.This manuscript is a preprint and has not been peer-reviewed.It is currently under consideration for publication in a peer-reviewed journal. This record provides bibliographic and descriptive information about the work. For purchase, licensing, institutional access, review copies, or requests for the full version, please contact the author directly: intellectpictures@gmail.com This work is Volume 5 of the complete edition of Quantum Model of the Universe, a multi-volume scientific monograph series devoted to the structural description of the observable Universe, its principal components, physical foundations, cosmological inventory, and empirical architecture. Author: Sergey G. KolesnyakIndependent Researcher in Theoretical Physics and CosmologyORCID: 0009-0008-7506-4013E-mail: intellectpictures@gmail.comDate: June 2026Field: Theoretical Physics / Fundamental Physics / Particle Physics / High-Energy Physics /Experimental Particle Physics / Collider Physics / Quantum Physics / Quantum Field Theory / QuantumCosmology / Cosmology / Physical Cosmology / Precision Cosmology / Observational Cosmology /Astrophysics / Observational Astronomy / Space Astronomy / Early-Universe Physics / InflationaryCosmology / Large-Scale Structure of the Universe / Galaxy Formation and Evolution / Dark MatterStudies / Dark Energy Studies / Gravitational Physics / Relativistic Cosmology / Information Physics /Foundations of Physics / Mathematical Physics / Vacuum Physics / Fundamental Interactions / StandardModel Physics / Beyond Standard Model Physics / Scientific Observation and Measurement / JamesWebb Space Telescope Science / Cosmic Microwave Background Studies / Fundamental Constants andPhysical Parameters Abstract Volume 5 of the Quantum Model of the Universe (QMU) research programme [1, 2, 3] develops the primarystructural layer of the current sixteen-volume QMU architecture under the title Primary Fields, Quantum Geometry,and the Architecture of the Early Universe. Its purpose is to establish the admissibility rules, mathematical-statusconventions, and early-universe constraints that govern later volumes devoted to acceleration, structure formation,black-hole regimes, observational interfaces, global consequences, and the limits of physical description. Thecurrent sixteen-volume structure is treated as the active publication architecture of the project, not as a closedlimit on future expansion. Volume 5 therefore does not present primary-field, carrier, vacuum, or primordial claimsas established new physics by assertion. It treats them as bounded structural hypotheses, diagnostic constructions,or authorial QMU extensions that must remain compatible with standard relativistic, quantum, and cosmologicalbaselines.The central task of Volume 5 is to separate physical transport, informational correlation, quantum-geometricmodelling, vacuum-network language, and primordial structural traces into controlled categories. Quantum andrelativistic statements are therefore organized through local definitions, ansatz terms, admissibility conditions,failure criteria, and recovery limits. Where a proposed QMU operator, coupling, or invariant becomes unbounded,observationally inseparable, causally ambiguous, or degenerate with standard description, the constructioncollapses locally to the corresponding conventional framework.The first block establishes the primary-field and carrier layer. It examines how vacuum structure,non-baryonic channels, relativistic causality, information capacity, and observational separability constrain anyproposed structural medium or transfer language. The second block develops the quantum–relativistic interface,including symmetry deformation, projection gravity, early inventory constraints, primordial tensor channels, andcross-observable falsification gates. The third block moves into primordial architecture: early boundary conditions,inherited correlations, compact seeds, annihilation-driven impulses, cyclic-transfer language, and early-universestructural admissibility.A major methodological result of Volume 5 is that the opening part of this volume cannot be read as aspeculative catalogue. Each chapter is designed to define what may be claimed, what must remain conditional, andwhat forces local withdrawal of a QMU-specific interpretation. The volume therefore prepares later acceleration,structure-formation, black-hole, observational, and global-consequence volumes by fixing the status of themathematical language: displayed relations may function as definitions, diagnostic tests, consistency targets,collapse conditions, or local parametrizations, but not as independent theorems unless explicitly derived orsource-supported in context.The final role of Volume 5 is architectural. It establishes the early chain from primary fields and quantumgeometry to primordial regimes without turning initial conditions into modified local laws or convertingsource-supported physics into proof of the QMU layer. In this form, Volume 5 supplies a controlled foundationfor the later volumes of QMU: every later vacuum, acceleration, multi-domain, galaxy-formation, black-hole,observational, and global-consequence claim inherits the same requirements of boundedness, separability, standardrecovery, and explicit refutability. The supplied final authorial version is dated 27 July 2026. Description Volume 5 develops a controlled admissibility architecture for primary fields, carrier hypotheses, vacuum-sector interfaces, quantum geometry, relativistic constraints, and primordial structure within the sixteen-volume Quantum Model of the Universe (QMU). Its central methodological rule is that established physics supplies the reference equations and observational controls, while QMU-specific constructions enter only as bounded ansatzes, diagnostics, local parametrizations, consistency conditions, or rejection tests with declared domains and recovery limits. The volume separates physical transport, energy transfer, causal signalling, informational correlation, vacuum-network language, quantum-geometric modelling, and primordial structural inheritance into distinct categories. A proposed carrier or geometric mechanism is not retained because it is conceptually suggestive; it must remain causally consistent, dimensionally controlled, observationally separable, and continuously recover the conventional description when its additional parameters vanish. Three linked layers organize the analysis. The first examines primary and carrier fields, vacuum sectors, antimatter, dark and hidden sectors, exotic matter, vacuum-related mass, and fluctuation-driven structure under separate evidentiary burdens. The second turns to spacetime foam, metric discreteness, quantum networks, Planck-scale corrections, computational-lattice descriptions, microscopic black holes, and gravitational-wave information channels. The third considers primordial boundary conditions, inherited correlations, compact seeds, cyclic-transfer hypotheses, and early-Universe structure while preserving the distinction between unusual initial data and modifications of local physical law. Quantum-geometric language is accepted only where a continuum limit, bounded microscopic dynamics, a declared coarse-graining procedure, and an observable failure channel are available. Metric discreteness is therefore treated as a testable modelling layer rather than as an established microscopic ontology. Null timing, projection, or channel tests return the corresponding construction to effective continuum physics rather than being reinterpreted as hidden confirmation. Within the larger QMU programme, Volume 5 establishes the conceptual grammar required by later cosmological mechanisms. Its purpose is not to declare a replacement theory, but to determine which extensions can remain scientifically admissible, which must reduce to established physics, and which observations can reject them. Contacts :intellectpictures@gmail.com