Λεπτομέρειες βιβλιογραφικής εγγραφής
| Τίτλος: |
THE DISCRETE FLUX ONTOLOGY: REDEFINING TIME, MOTION, AND THE EQUIVALENCE PRINCIPLE IN THE CIRHE FRAMEWORK: VERSION 2 |
| Συγγραφείς: |
Knight, Christina Anne |
| Στοιχεία εκδότη: |
Zenodo, 2026. |
| Έτος έκδοσης: |
2026 |
| Θεματικοί όροι: |
Quantum Gravity, Renormalization, Structural Accumulation, Cyclic Cosmology, Plowing Mechanism, GENERAL SYSTEMS THEORY, Dark Energy Reinterpretation, Computational Determinacy, QUANTUM FIELD THEORY, BLACK HOLE PHYSICS, Theoretical Physics, Thermodynamics of Spacetime, Discrete Information Propagation, Inelastic Repulsive Force (Fr), FLUID DYNAMICS, CIRHE Framework, QED, DARK MATTER, Physical Ontology, Arrow of Time, Time Dilation Saturation, big bang alternatives, gravitational field, Equivalence Principle (Mechanical), Three‑Body Problem, Heavy‑Flavor Antimatter (Neutral Composite), Quark-Gluon Plasma, KECM (Knight Evolutionary Cyclic Model), Discrete Gravitational Flux Field, Deterministic Gravitational Dynamics, Flux‑Compression Limit, spacetime structure, Bounce Cosmology (Discrete), Mechanistic Ontology, Cyclic Information Refining Heat Engine, THREE-BODY PROBLEM, QFT, Degenerate‑Core Formation, horizon problem, Ontological Discreteness, Discrete Flux Ontology, Definition of Time, Finite Information‑Transfer Capacity, Non‑Inflationary Horizon Solution, Horizon Synchronization, GST, information paradox, DETERMINISTIC ONTOLOGY, Hierarchy Problem, Physical Cosmology, quantum vacuum, Cyclic Cosmology (Mechanical), Beta Decay, Tolman Reset Problem, Black Hole Physics, gamma‑ray bursts, Deterministic Cosmology, Mechanical Time Definition, Holographic Displacement Shell, Entropy Reduction, Nucleon Structure, ARCHIMEDES PRINCIPLE, ANTIMATTER, SYSTEMS THEORY, Strong Interaction Dynamics, PLANCK TIME, vacuum energy, Planck Scale Cutoff, Planck‑Scale Information Encoding, Local Update Rules, Stellar Ignition Mechanism, Identity Formation (Ontological), Mechanical Inertia, Information Refinement Cycle, Discrete State Transitions, HOLOGRAPHIC PRINCIPLE, nucleosynthesis, early universe, cosmic inflation (alternative models), SOLID STATE PHYSICS, QUANTUM MECHANICS, cosmic structure formation, HIERARCHY PROBLEM, Antimatter, Nonlinear Repulsive Regime, ARCHIMEDES BUOYANCY, supernovae, Planck‑Floor Dynamics, Ontological Mechanics, Parametric Mutagenesis, Gravitational Halo Storage, GENERAL RELATIVITY, Planck‑Volume Information Storage, Planck length, Foundational Ontology, Holographic Information Preservation, Discrete Update Mechanics, Continuum Error, Substrate Ontology, Discrete Gravitational Flux, Tolman Reset Resolution, Cyclic Universe Model, Planck scale, discrete spacetime, Displacement‑Pressure Regime, Non‑Geometric Physics, PLANCK VOLUME, Flux‑Exchange Dynamics, Fine Structure Constant, Relativistic Mechanics, ARCHIMEDES DISPLACEMENT LAW, black holes, Asymptotic Freedom, Cosmic Bounce Mechanics, holography, CYCLIC COSMOLOGY, SYSTEMS ONTOLOGY, SPECIAL RELATIVITY, CIRHE (Cyclic Information-Refining Heat Engine) |
| Περιγραφή: |
Framework: CIRHE – Cyclic Information Refining Heat Engine This monograph presents the Discrete Flux Ontology, a foundational reformulation of time, motion, gravitation, and cosmic evolution. The ontology identifies the Continuum Error—the assumption that space is a smooth, non‑substantive geometric manifold—as the root of many unresolved paradoxes in 20th‑century physics. In its place, the ontology establishes a Discrete Gravitational Flux Field, a substantive medium anchored to the invariant Planck length and governed by quantized flux‑exchange dynamics. Within this framework, Time is defined explicitly and mechanically as: “the relational rate of state‑change and motion between interdependent systems, governed by the finite information‑transfer capacity of the discrete gravitational flux medium (c).” Because no system is ever isolated—gravity has infinite range—time persists universally as an interaction‑driven necessity. Time dilation emerges not from stretching a geometric dimension but from reallocating a finite update rate between internal change and external motion. A central result of the ontology is the derivation of the inelastic repulsive force that activates at the Planck floor when flux‑compression reaches its discrete limit. This force is not an added assumption but a structural consequence of the discrete medium. It prevents singularity formation, enforces bounce dynamics, and provides the missing mechanical boundary condition required for a cyclic universe. The ontology develops a holographic information‑preservation mechanism in which each graviton occupies exactly one Planck‑volume cell. At maximum compression, the surrounding flux forms a discrete holographic displacement shell that preserves low‑entropy structural information. This provides a mechanical explanation for information retention in black‑hole interiors without invoking exotic quantum gravity constructs. From these structural principles follows a mechanical solution to the hierarchy problem: the enormous 10^32 ratio between gravitational and electroweak scales arises naturally as the ratio between the nonlinear repulsive regime at the Planck floor and the linear displacement‑pressure regime governing macroscopic interactions. No external parameters or fine‑tuning assumptions are required. The ontology provides a mechanical origin for inertia, arising from resistance to flux‑displacement and the finite information‑transfer capacity of the medium. This yields a substrate‑level explanation for why objects resist acceleration—historically treated as a primitive property. The equivalence principle emerges naturally: gravitational acceleration and inertial resistance are two expressions of the same underlying flux‑exchange process. This unifies gravitational and inertial behavior without requiring curved spacetime as a fundamental entity. The framework replaces probabilistic cosmology with deterministic flux‑exchange mechanics, resolving the Horizon Problem and Tolman Reset Problem through mechanical synchronization rather than inflation. Gravitons, with fixed Planck‑wavelength displacement, propagate discrete updates that maintain causal coherence across the cosmic cycle. The ontology also introduces a deterministic interpretation of high‑energy astrophysical phenomena. It identifies antimatter desequestration cycles in which gravitational flux density destabilizes sequestered heavy‑flavor antimatter (a mechanically stable, electrically neutral composite of a heavy‑flavor antiproton bound with a heavy‑flavor positron) stored in halos. Nucleosynthesis, supernovae, and gamma‑ray bursts are interpreted as mechanical desequestration events, providing a unified energy source for stellar ignition and a forensic signature for the most energetic processes in the cosmos. The framework models the universe as a cyclic information‑refining engine in which all physical evolution occurs through quantized flux‑exchange updates. Continuous trajectories and smooth spacetime are replaced by discrete state transitions. This eliminates the divergence behavior that underlies classical multi‑body instabilities: in this formulation, the traditional 3‑body problem becomes computationally determinate rather than analytically intractable. The ontology provides a natural arrow of time, arising from information refinement, entropy reduction at the Planck floor, and the directional structure of the cyclic engine. Cosmic expansion is reframed as a structural consequence of discrete flux‑update dynamics rather than a mysterious dark‑energy field. The global cycle—expansion, identity formation, structural accumulation, convergence, collapse, degenerate‑core formation, bounce, and re‑expansion—is mechanically enforced by the substrate’s discrete limits and repulsive dynamics. These cycles impose strict falsification criteria: any confirmed global trajectory incompatible with cyclic behavior would falsify the framework. Version 2 expands and formalizes the structural, dynamical, informational, and evolutionary layers of the ontology; derives the repulsive force; resolves the hierarchy problem mechanically; defines a holographic Planck‑volume information‑preservation mechanism; provides a mechanical origin for inertia; clarifies the equivalence principle in a discrete‑update context; eliminates singularities; reframes dark energy; and integrates observational implications, methodological reframing, and testability conditions. The result is a unified, discrete, cyclic ontology intended to serve as a conceptual substrate for future computational and physical modeling. This framework also provides a mechanical explanation for quantum entanglement. In this ontology, entangled particles are not independent objects but boundary expressions of a single shared flux‑displacement volume. Their correlation is not “spooky action at a distance” but the result of 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, causality, and the speed‑limit structure of Special Relativity. Space and time are ontologically unified because both emerge from the same mechanical substrate: the discrete gravitational flux medium of fixed‑wavelength Planck‑length gravitons governed by the inelastic repulsive force. This force establishes a minimum displacement volume, making space quantized, while the graviton flux imposes a finite state‑change bandwidth, making time quantized. Without the inelastic repulsive force, no prior quantum‑gravity framework could quantize space; without the flux medium, time could not exist as a physical process. This ontology therefore provides the first mechanical definition of space‑time as a single system of displacement and state‑change, resolving the structural limitations that prevented earlier cyclic and quantum‑gravity models from achieving a fully time‑dependent formulation. |
| Τύπος εγγράφου: |
Book |
| DOI: |
10.5281/zenodo.19655562 |
| Rights: |
CC BY |
| Αριθμός Καταχώρησης: |
edsair.doi...........5b4ff5fb48f0cda5629a3a05b2f8d47c |
| Βάση Δεδομένων: |
OpenAIRE |