Book
THE DISCRETE FLUX ONTOLOGY: REDEFINING TIME, MOTION, AND THE EQUIVALENCE PRINCIPLE IN THE CIRHE FRAMEWORK: VERSION 4
| Τίτλος: | THE DISCRETE FLUX ONTOLOGY: REDEFINING TIME, MOTION, AND THE EQUIVALENCE PRINCIPLE IN THE CIRHE FRAMEWORK: VERSION 4 |
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| Συγγραφείς: | Knight, Christina Anne |
| Στοιχεία εκδότη: | Zenodo, 2026. |
| Έτος έκδοσης: | 2026 |
| Θεματικοί όροι: | Quantum Gravity, Renormalization, Structural Accumulation, Cyclic Cosmology, System Boundary, Plowing Mechanism, GENERAL SYSTEMS THEORY, Positive Feedback, Dark Energy Reinterpretation, Computational Determinacy, Information Capacity, QUANTUM FIELD THEORY, BLACK HOLE PHYSICS, Theoretical Physics, System Coherence, Constraint Networks, Relational Causation, Hierarchy, Homeostasis, State‑Space Structure, Thermodynamics of Spacetime, Discrete Information Propagation, Inelastic Repulsive Force (Fr), Cyclic Evolution, FLUID DYNAMICS, CIRHE Framework, QED, Adaptive Systems, DARK MATTER, Physical Ontology, Arrow of Time, Time Dilation Saturation, Complex Systems, big bang alternatives, gravitational field, Equivalence Principle (Mechanical), Three‑Body Problem, Heavy‑Flavor Antimatter (Neutral Composite), Deterministic Dynamics, Quark-Gluon Plasma, KECM (Knight Evolutionary Cyclic Model), Discrete Gravitational Flux Field, Deterministic Gravitational Dynamics, Flux‑Compression Limit, spacetime structure, Holism, Bounce Cosmology (Discrete), Mechanistic Ontology, Cyclic Information Refining Heat Engine, THREE-BODY PROBLEM, BERTALANFFY, QFT, Degenerate‑Core Formation, horizon problem, Ontological Discreteness, Discrete Flux Ontology, Definition of Time, Finite Information‑Transfer Capacity, Non‑Inflationary Horizon Solution, Horizon Synchronization, Constraint Propagation, GST, information paradox, DETERMINISTIC ONTOLOGY, Hierarchy Problem, Physical Cosmology, quantum vacuum, Cyclic Cosmology (Mechanical), Organization (Ontological), Adaptive Structure, Beta Decay, Tolman Reset Problem, System Evolution, Black Hole Physics, gamma‑ray bursts, Deterministic Cosmology, Mechanical Time Definition, Holographic Displacement Shell, System Identity, Entropy Reduction, Interconnected Systems, Nucleon Structure, ARCHIMEDES PRINCIPLE, Interdependence, ANTIMATTER, SYSTEMS THEORY, Strong Interaction Dynamics, general systems theory, PLANCK TIME, Equifinality, vacuum energy, Feedback Loops, Planck Scale Cutoff, HOLON, Planck‑Scale Information Encoding, Multilevel Organization, Local Update Rules, Stellar Ignition Mechanism, Closed Systems, Information Flow, Identity Formation (Ontological), Subsystem / Supersystem Hierarchy, Mechanical Inertia, HYDROSTATIC EQUILIBRIUM, Self‑Regulation, Information Refinement Cycle, Self‑Organization, Discrete State Transitions, HOLOGRAPHIC PRINCIPLE, nucleosynthesis, early universe, cosmic inflation (alternative models), Open Systems, SOLID STATE PHYSICS, QUANTUM MECHANICS, cosmic structure formation, HIERARCHY PROBLEM, HOLARCHY, Antimatter, Nonlinear Repulsive Regime, ARCHIMEDES BUOYANCY, supernovae, Planck‑Floor Dynamics, Ontological Mechanics, ARTHUR KOESTLER, Parametric Mutagenesis, Gravitational Halo Storage, Emergence, System Architecture, GENERAL RELATIVITY, System Dynamics, Planck‑Volume Information Storage, Planck length, Constraint Surface, Foundational Ontology, Holographic Information Preservation, Discrete Update Mechanics, Continuum Error, Emergent Structure, Substrate Ontology, Discrete Gravitational Flux, Tolman Reset Resolution, systems theory, Cyclic Universe Model, Planck scale, discrete spacetime, Identity Persistence, Displacement‑Pressure Regime, Non‑Geometric Physics, Complex Adaptive Systems, Holarchic Structure, PLANCK VOLUME, Flux‑Exchange Dynamics, Fine Structure Constant, Relativistic Mechanics, ARCHIMEDES DISPLACEMENT LAW, black holes, Phase Transitions (Systems), Asymptotic Freedom, Cosmic Bounce Mechanics, Nonlinear Dynamics, holography, CYCLIC COSMOLOGY, SYSTEMS ONTOLOGY, SPECIAL RELATIVITY, CIRHE (Cyclic Information-Refining Heat Engine) |
| Περιγραφή: | Framework: CIRHE – Cyclic Information‑Refining Heat Engine Version 4.0 — Complete Structural, Dynamical, Informational, Evolutionary, and Cyclic Ontology This monograph presents the Discrete Flux Ontology, a complete mechanical reformulation of time, motion, gravitation, identity, information, and cosmic evolution. It begins by identifying the Continuum Error—the assumption that space is a smooth, non‑substantive geometric manifold—as the root of singularities, fine‑tuning problems, the hierarchy problem, the information paradox, and the fragmentation of modern physics. In its place, the ontology establishes a Discrete Gravitational Flux Medium, a substantive substrate anchored to the invariant Planck length and governed by quantized flux‑exchange dynamics. The substrate functions as the physical medium that replaces the continuum. It provides the environment in which all motion, oscillation, propagation, and interaction occur. Every displacement, every wave, every particle state, and every force is a configuration or pattern within this medium. Unlike a geometric continuum, the substrate is composed of discrete flux field units separated by the minimum spatial interval Lₚ and minimum temporal interval tₚ. Each unit stores finite tension and displacement, and interactions occur only through adjacency‑limited exchange of update weight. Because the substrate has a fixed excitation wavelength and a maximum update rate, all allowable oscillations are restricted to the quantized frequency spectrum fₙ = 1/(n tₚ). The substrate is therefore not an abstract background or a mathematical manifold; it is the discrete mechanical medium that makes motion possible and gives physical meaning to time, frequency, and interaction. Mechanical Definition of Time and Motion Time is defined mechanically as the rate of state‑change in the flux medium. Because internal change and external motion compete for the same finite update‑capacity, time dilation emerges from bandwidth allocation rather than geometric stretching. No system is ever isolated—gravity has infinite range—so time persists universally as an interaction‑driven necessity. The ontology develops a Planck‑volume holographic mechanism in which each graviton occupies exactly one Lₚ³ cell. At maximum compression, the surrounding flux forms a discrete displacement shell that preserves low‑entropy structural information, providing a mechanical explanation for black‑hole information retention without quantum‑gravity speculation. Time Time is the transactional rate of change and motion between interdependent systems through the gravitational flux, bandwidth‑limited by the speed of light. Space‑Time Space‑Time is the discrete configuration of flux‑cell adjacencies and their update relationships, generated by the space–time ratio tₚ = Lₚ / c. A core feature of the KECM framework is the quantization of frequency imposed by the Planck‑scale update interval of the medium. Because the Fixed‑Wavelength Graviton Flux refreshes at the discrete temporal step defined by tₚ = Lₚ / c, all physical oscillations must occur on the quantized spectrum fₙ = 1 / (n tₚ). This relation establishes the universe’s mechanical clock grid, determines the allowed energy levels, enforces the repulsive frequency floor, and governs the formation of hardshell boundaries. Until the companion ontology, DOTC, and gravity documents are updated, this frequency‑quantization rule serves as the foundational constraint linking all dynamical processes across the KECM system. Mechanical Resolution of the Hierarchy Problem The enormous 10^32 hierarchy arises mechanically from the ratio between the nonlinear repulsive regime enforced at the Planck floor and the linear displacement‑pressure regime that governs macroscopic gravitational interactions. No external parameters or fine‑tuning enter the construction. Mechanical Origin of Inertia and the Equivalence Principle Inertia arises from resistance to flux‑displacement in a finite‑capacity medium. Gravitational acceleration and inertial resistance are two expressions of the same flux‑exchange process, yielding a mechanical equivalence principle without curved spacetime as a fundamental entity. Unified Structural, Dynamical, Informational, and Evolutionary Ontologies Version 3 formalizes and integrates four ontologies: Structural Ontology — boundaries, constraints, identity, hierarchy Dynamical Ontology — state‑change, constraint propagation, stability transitions Informational Ontology — configuration, continuity, capacity, flow Evolutionary Ontology — constraint accumulation, boundary reconfiguration, phase‑state transitions These are synthesized into a single closed, hierarchical, mechanical ontology. Cyclic Ontology and the CIRHE Engine The universe is modeled as a Cyclic Information‑Refining Heat Engine (CIRHE) whose global evolution proceeds through eight mechanically enforced stages: expansion, identity formation, structural accumulation, convergence, collapse, degenerate‑core formation, bounce, and re‑expansion. The cycle is deterministic, self‑causing, and informationally continuous. Inflation is unnecessary; causal coherence is maintained by discrete flux‑update propagation. Antimatter Desequestration and High‑Energy Astrophysics The ontology introduces a deterministic interpretation of high‑energy astrophysical phenomena via antimatter desequestration cycles, in which gravitational flux density destabilizes sequestered heavy‑flavor antimatter. This provides unified mechanical explanations for nucleosynthesis, stellar ignition, supernova energetics, and gamma‑ray bursts. In the CIRHE ontology, dark matter desequestration is not an ad hoc annihilation channel but a mechanical failure mode of phase‑locked bound states on a finite‑state substrate. Dark matter is modeled as a neutral composite of antiprotons and positrons—a high‑frequency bound mode running on top of the universal gravity carrier, whose frequency is set by the fixed gravity wavelength λg and the substrate tick (fg=1/λg with c=1 hop per tick). Each composite has an internal binding frequency fDM that is normally phase‑locked to this carrier. In regions of strong curvature or extreme bandwidth gradients (e.g., stellar cores, compact objects), the local modulation of the gravity carrier introduces a shift δfg. Desequestration occurs when this modulation drives the composite out of its stability band, such that the phase‑locking condition fails: ∣fDM−(fg+δfg)∣>Δfcrit. At that point, the bound antiproton–positron pattern can no longer be maintained by the substrate and decoheres, releasing its antimatter contents to annihilate with ambient baryons and electrons. This provides a localized, mechanically triggered source of kinetic energy that can, for example, catalyze fusion in stellar cores without invoking improbable quantum tunneling as the sole Coulomb‑barrier mechanism. Crucially, this frequency‑locking picture explains why desequestration is rare and environment‑dependent, ties dark matter behavior directly to the CIRHE hardware clock and gravity carrier, and yields a compact, falsifiable condition for when and where antimatter is released. Quantum Entanglement as Boundary‑Regulated Identity Entangled particles are not independent objects but boundary expressions of a single shared flux‑displacement volume. Their correlation arises from a common relational substrate through which updates propagate at the finite rate c. Measurement reconfigures one boundary of the shared system, and the relational volume updates accordingly, preserving locality and causality. Space‑Time as a Unified Mechanical System Space and time emerge from the same mechanical substrate: the discrete gravitational flux medium. The inelastic repulsive force establishes a minimum displacement volume (quantized space), while the flux‑update bandwidth imposes a finite rate of state‑change (quantized time). This provides the first mechanical definition of space‑time as a single system of displacement and state‑change. Methodological and Philosophical Closure Version 4 reframes scientific methodology for a closed universe: no external parameters, no singularities, no free constants, no external time, no external geometry, and no probabilistic ontology at the substrate level. The universe is self‑causing, self‑organizing, self‑evolving, informationally continuous, and cyclic. Integration with Systems Theory and GST The ontology unifies physics, systems theory, and philosophy by grounding identity, causation, information, hierarchy, emergence, and cyclic evolution in a single discrete mechanical substrate. Appendices The appendices provide substrate mechanics (A), boundary schematics (B), phase‑state tables (C), cycle diagrams (D), minimal mathematical notes (E), and the Symbol & Equation Glossary (F). Scope This monograph provides the first fully mechanical, discrete, cyclic ontology of the universe, resolving long‑standing paradoxes and offering a substrate‑level foundation for future computational and physical modeling. Inelastic Repulsive Force and the Planck Floor A central result is the derivation of the inelastic repulsive force that activates when flux‑compression reaches the Planck‑floor capacity limit. This force prevents singularities, enforces bounce dynamics, defines the minimum displacement volume, and provides the missing mechanical boundary condition for a cyclic universe. Holographic Information Preservation The ontology develops a Planck‑volume holographic mechanism in which each graviton occupies exactly one Lₚ³ cell. At maximum compression, the surrounding flux forms a discrete displacement shell that preserves low‑entropy structural information, providing a mechanical explanation for black‑hole information retention without quantum‑gravity speculation. Version 4 consolidates the structural, dynamical, informational, and evolutionary components into a single closed ontology, establishing the most complete and mechanically explicit formulation of the Discrete Flux Medium to date. Quantum Entanglement as Boundary‑Regulated Identity Entangled particles are not independent objects but boundary expressions of a single shared flux‑displacement volume. Their correlation arises from a common relational substrate through which updates propagate at the finite rate c. Measurement reconfigures one boundary of the shared system, and the relational volume updates accordingly, preserving locality and causality. Space‑Time as a Unified Mechanical System Space and time emerge from the same mechanical substrate: the discrete gravitational flux medium. The inelastic repulsive force establishes a minimum displacement volume (quantized space), while the flux‑update bandwidth imposes a finite rate of state‑change (quantized time). This provides the first mechanical definition of space‑time as a single system of displacement and state‑change. Methodological and Philosophical Closure Version 4 reframes scientific methodology for a closed universe: no external parameters, no singularities, no free constants, no external time, no external geometry, and no probabilistic ontology at the substrate level. The universe is self‑causing, self‑organizing, self‑evolving, informationally continuous, and cyclic. Integration with Systems Theory and GST The ontology unifies physics, systems theory, and philosophy by grounding identity, causation, information, hierarchy, emergence, and cyclic evolution in a single discrete mechanical substrate. Appendices The appendices provide substrate mechanics (A), boundary schematics (B), phase‑state tables (C), cycle diagrams (D), minimal mathematical notes (E), and the Symbol & Equation Glossary (F). Scope This monograph provides the first fully mechanical, discrete, cyclic ontology of the universe, resolving long‑standing paradoxes and offering a substrate‑level foundation for future computational and physical modeling. Inelastic Repulsive Force and the Planck Floor A central result is the derivation of the inelastic repulsive force that activates when flux‑compression reaches the Planck‑floor capacity limit. This force prevents singularities, enforces bounce dynamics, defines the minimum displacement volume, and provides the missing mechanical boundary condition for a cyclic universe. Holographic Information Preservation The ontology develops a Planck‑volume holographic mechanism in which each graviton occupies exactly one Lₚ³ cell. At maximum compression, the surrounding flux forms a discrete displacement shell that preserves low‑entropy structural information, providing a mechanical explanation for black‑hole information retention without quantum‑gravity speculation. Version 4 consolidates the structural, dynamical, informational, and evolutionary components into a single closed ontology, establishing the most complete and mechanically explicit formulation of the Discrete Flux Medium to date. |
| Τύπος εγγράφου: | Book |
| DOI: | 10.5281/zenodo.20006709 |
| Rights: | CC BY |
| Αριθμός Καταχώρησης: | edsair.doi...........c94f07dd600b48915bdb8b23bcdeb70d |
| Βάση Δεδομένων: | OpenAIRE |
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