Switching Quadratic Atlas
Mapping the event-time skeleton of orientation flips in quadratic maps to identify recurrent morphological features like the Left-Hand Wedge.
Diagnostic: First-flip iteration and occupancy parityThe -framework is an exploratory initiative in Natural Mathematics: an approach to dynamical systems and physics that prioritizes state-space mechanics and environmental response over static universal constants.
Jack Pickett is a Senior Systems Engineer and Independent Researcher based in Cornwall, UK. With over a decade of experience building high-resilience production systems, he brings a software architect's discipline to theoretical physics. His work focuses on the intersection of dynamical systems, numerical simulation, and empirical data analysis.
What began as a study into the orientation-switching mechanics of quadratic maps has evolved into a unified empirical framework for understanding gravitational anomalies, from planetary perihelion drift to galaxy rotation curves.
Traditional physics often relies on "dark" unobserved entities to balance the books when observations deviate from theory. The -framework proposes an alternative: spacetime curvature responds not just to mass, but to the dynamical environment.
By introducing a curvature-response parameter, , we can model complex systems, whether chaotic mathematical attractors or spiral galaxies, using local deterministic rules within a fully baryonic framework.
Mapping the event-time skeleton of orientation flips in quadratic maps to identify recurrent morphological features like the Left-Hand Wedge.
Diagnostic: First-flip iteration and occupancy parityA local Bell-type model demonstrating that sector-progress dynamics are sufficient to generate structured CHSH correlations.
Diagnostic: Flip-on-overflow correlation mappingEvaluating the framework against 165+ rotation curves to reproduce velocity profiles without non-baryonic dark matter.
Diagnostic: Local density/strain-rate curvature responseLong-term N-body stability testing and secular perihelion drift analysis using the REBOUND integrator.
Diagnostic: Secular drift and orbital stability coefficientsThis site serves as a live laboratory for these ideas. The same principles that govern a high-stakes transaction flow in a production system govern the stability of an orbit in a solar system.
The analysis pipeline is implemented in Python. The repository includes data ingestion routines, model fitting procedures, and scripts used to generate the figures and statistical results presented throughout the project.