High-precision UAV tracking is hindered by hard-to-model aerodynamic effects. We propose a learning-based controller for a simplified quadrotor that uses Feedback Linearization (FL), to cancel modeled dynamics, and a sparse Bayesian inference method called Recursive Gaussian Process (RGP), to learn and compensate residual nonlinearities in real time. Simulations and experiments conducted on a real 1D quadrotor platform demonstrate reduced tracking error and practical feasibility for real-world implementation.
Learning-Based Quadrotor Tracking Control Using Recursive Gaussian Processes
Nazzari, Alessandro;Rubinacci, Roberto;Lovera, Marco
2026-01-01
Abstract
High-precision UAV tracking is hindered by hard-to-model aerodynamic effects. We propose a learning-based controller for a simplified quadrotor that uses Feedback Linearization (FL), to cancel modeled dynamics, and a sparse Bayesian inference method called Recursive Gaussian Process (RGP), to learn and compensate residual nonlinearities in real time. Simulations and experiments conducted on a real 1D quadrotor platform demonstrate reduced tracking error and practical feasibility for real-world implementation.File in questo prodotto:
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