Evidence-governed quantum simulation of coupled-oscillator synchronisation — Kuramoto–XY workloads on Superconducting Computers, raw counts + hash-bound result packs, preregistered protocols.
This repository contains a comprehensive notebook exploring coupled oscillator systems through rigorous theory, numerical integration, and multi-domain diagnostics.
Custom 18-DoF hexapod robot — Kuramoto-CPG locomotion controller, real-time gait visualiser, IMU heading-hold autonomous firmware, full mechanical CAD, and a 34-test verification suite.
"Tensor Decomposition to Capture Spatiotemporal Patterns of Coupled Oscillator and Opinion Dynamics" by Agam Goyal and Hanbaek Lyu
Evidence-first synchronization analysis and review-only control proposals for coupled rhythmic systems (Kuramoto/UPDE), with reproducible audits.
A comprehensive computational physics project that simulates wave dynamics through coupled oscillator systems, exploring normal modes, symmetry effects, and wave propagation phenomena.
Axiomatic physics model describing fundamental processes as coupling and resonance phenomena in oscillation fields. Core equation: E = π·ε(Δφ)·ħ·f. Empirically validated across particle physics, cosmology, nuclear technology, and financial markets. Simulations, LaTeX papers, and falsifiable predictions.
Physics simulation visualizing normal modes of coupled oscillators with comprehensive testing and CI/CD
A framework for constructing digital twins of brain dynamics. Reconstruct functional networks from signals and run simulations using coupled oscillator models.
Exploring how Hamiltonian Neural Networks learn physical dynamics, conserve energy, and compare with standard neural network baselines.
RK4 simulation and normal-mode analysis of coupled oscillators and small-angle coupled pendulums.
Generalized Kuramoto coupling topology for language semantics — distill, converge, decode
Unscented Kalman Filter (UKF), to enhance modeling and understanding of neural dynamics from fMRI data using Coupled Oscillator Model.
Whole-Brain Kuramoto Model
Why the London Millennium Bridge wobbled. Open it in a browser: a crowd walking out of step makes the deck run away anyway, because people leaning against a moving floor are a shock absorber wired backwards. Toggle to the storybook synchrony mechanism and watch it need a different crowd.
A Unity-Based Artificial Life Course
Archived C++ and Python study of synchronization in one- and two-dimensional Kuramoto oscillator systems.
This a python simulation of coupled oscillators to obtain the normal frequencies and the position-time graphs of the oscillators and additionally also obtain lissajous figures.
RGCS is an open-source computational framework for modelling, visualizing, and experimentally evaluating coupled resonant systems. It combines reproducible mathematics, provenance-controlled scientific software, uncertainty analysis, and experiment planning.
To associate your repository with the coupled-oscillators topic, visit your repo's landing page and select "manage topics."