Tri‑Axial Rodeo Dynamics and the Formation of Fusion Micro‑Knots: A Complete Canon of Three‑Axis Driven Atomic and Plasma Systems
This upload contains the full Rodeo Dynamics Canon: the main research paper, the complete compendium set, the advanced constructs, the atlas, the catalogue, and the fusion micro‑knot primer. Together, they establish the Tri‑Axial Rodeo Field (TARF) as a structured three‑axis forcing regime capable of generating looping, folding, and knotted trajectories inside confined atomic and plasma environments. The core claim of the work is that tri‑axial forcing produces transient high‑density micro‑knots — temporal density objects formed by repeated revisits of the particle’s trajectory. These micro‑knots amplify collision density, local heating, and turbulence‑like mixing, enabling fusion enhancement without requiring improvements in global confinement quality. Key metrics formalised in the canon include:- Rodeo Knot Number (Rk) — effective self‑crossings per unit time - Rodeo Confinement Factor (Cr) — fraction of time spent in knot regions - Fusion Enhancement Coefficient (Ef) — ratio of rodeo‑driven to baseline collision density The upload also includes:- The Rodeo Field Atlas (Archetypes I–V) - The Knot Density Catalogue (Types I–V) - The Fusion Micro‑Knot Primer - Simulation recipes, parameter sets, ASCII diagrams, pseudocode, and advanced manifold analysis MAIN EQUATION (TARF) \\[F(t) = F_x \\sin(\\omega_x t + \\phi_x)\\,\\hat{x} + F_y \\sin(\\omega_y t + \\phi_y)\\,\\hat{y} + F_z \\sin(\\omega_z t + \\phi_z)\\,\\hat{z}\\] This equation defines the Tri‑Axial Rodeo Field — the three‑axis oscillatory forcing structure that generates the knotted trajectories central to micro‑knot formation and fusion enhancement. This work was cooked in honour of SSX 3 and its absolutely wicked soundtrack, the game that first sparked the intuition behind tri‑axial rodeo dynamics.-Matt KEYWORDSTri‑Axial Rodeo Field; micro‑knots; fusion enhancement; controlled complexity; plasma confinement; knot dynamics; Carlo framework; three‑axis forcing; collision density; TARF; Rk; Cr; Ef. Contact: For enquiries or research questions related to this work, email [email protected]
Authors
- Matthew Arthur Carlo
Publication Details
- Journal
- Zenodo (CERN European Organization for Nuclear Research)
- Published
- 2026-08-26
- DOI
- https://doi.org/10.5281/zenodo.22104236
- Primary Topic
- Laser-Plasma Interactions and Diagnostics
- Type
- article
- Field-Weighted Citation Impact
- 0.00