The Deterministic Piston: Dark Matter Desequestration as the Mechanical Driver of Stellar Nucleosynthesis and LHC Pion Excess Version 2.0
| Τίτλος: | The Deterministic Piston: Dark Matter Desequestration as the Mechanical Driver of Stellar Nucleosynthesis and LHC Pion Excess Version 2.0 |
|---|---|
| Συγγραφείς: | Knight, Christina Anne |
| Publication Status: | Preprint |
| Στοιχεία εκδότη: | Zenodo, 2026. |
| Έτος έκδοσης: | 2026 |
| Θεματικοί όροι: | LHC Run 4 Signatures, Cyclic Inelastic Repulsive Heat Engine, ALICE Collaboration, Flavour Physics, ANTIMATTER, Event Horizon Mechanics, CMS Experiment, Pion and Kaon Spectra, Finite-Time Thermodynamics, dark matter, Stellar Nucleosynthesis, AMS‑02 Antiproton Excess, Antiproton Yield Signatures, Flavor Relaxation Spectrum, Dark Matter Searches, Collider Phenomenology, Beyond the Standard Model (BSM), Heavy‑Flavor Antimatter, Electroweak Lock, CIRHE Framework, Long-lived Particles (LLP, Kaon Cascade Channels, LIGO Ringdown Quantization, Dark Matter Desequestration, pion, Supernova Rebound, Flavor Downshift, Positron Emission Bursts, Flux-Displacement Logic, antiproton, High-Luminosity LHC, positron, Phenomenology, kaon, LHC Pion Excess, Cyclic Heat Engine Optimization' |
| Περιγραφή: | Standard solar models rely on a “Core Temperature Paradox,” where the measured internal temperature of stars is insufficient to classically penetrate the Coulomb barrier, forcing reliance on probabilistic quantum tunneling. This work presents a deterministic alternative: the Deterministic Piston Model, a mechanical reinterpretation of stellar ignition, collapse, and cosmic evolution within a Cyclic Inelastic Repulsive Heat Engine (CIRHE) framework. In this model, dark matter is not a weakly interacting particle but a high‑density reservoir of heavy‑flavor quarks sequestered in a stable geometric hardshell lattice. Stellar ignition occurs when gravitational compression drives the Electroweak Lock to its mechanical failure point, triggering a Flavor Downshift and releasing sequestered antimatter directly into the baryonic core. The resulting localized matter–antimatter annihilation provides the deterministic kinetic impulse required to overcome the Coulomb barrier, eliminating the need for quantum tunneling. The framework extends beyond stellar ignition to provide a fully mechanical account of core collapse, mode‑boundary failure, hardshell interior formation, event‑horizon mechanics, supernova rebound, and black‑hole stability. Observable signatures—including LHC low‑pT pion excesses, LIGO ringdown quantization, AMS‑02 antiproton anomalies, and EHT shadow radii—are interpreted as experimental evidence of the same underlying substrate mechanics. The result is a unified, deterministic, mechanically reversible cosmological model that replaces geometric singularities with finite structures, preserves information through Subatomic Scripts, and describes the universe as a cyclic piston engine governed by substrate tension, quantized modes, and mechanical boundary conditions. This model provides specific testable signatures for LHC Run 4 data, particularly for low-momentum particle spectra in ALICE and CMS. |
| DOI: | 10.5281/zenodo.20113575 |
| Rights: | CC BY |
| Αριθμός Καταχώρησης: | edsair.doi...........6ade8e9b0c443d5cd143c4b4902ff5d3 |
| Βάση Δεδομένων: | OpenAIRE |
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