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This paper investigates the dynamics and control laws for tracking both velocity and position using Lambda tracking. It presents a comprehensive outline, including simulations and experiments conducted under varying conditions—both with and without noise, and with cogging effects. The findings indicate that a faster response can be achieved utilizing fractional-order derivatives. This research emphasizes the need for further exploration into noise rejection and the mitigation of tremors during experiments, aiming to enhance the reliability of adaptive control systems.
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Simulations and Experiments for Velocity / Position Lambda - Tracking of Universal Adaptive Control Ying Luo CSOIS / ECE / USU 13 / 2 / 2008
Outline • Velocity Lambda – Tracking • Dynamics and Control Law • Simulation • Experiment • Position Lambda – Tracking • Dynamics and Control Law • Simulation • Experiment
Velocity Lambda - Tracking • Dynamics and Control Law Relative degree
Velocity Lambda - Tracking • Simulation block diagram
Velocity Lambda - Tracking • Simulation (Without noise, without cogging) rad/s
Velocity Lambda - Tracking • Simulation (Without noise, without cogging) rad/s
Velocity Lambda - Tracking • Simulation (Without noise, without cogging) rad/s
Velocity Lambda - Tracking • Simulation (With noise, without cogging) rad/s
Velocity Lambda - Tracking • Simulation (With noise, without cogging) rad/s
Velocity Lambda - Tracking • Simulation (With noise, without cogging) rad/s
Velocity Lambda - Tracking • Simulation (With cogging, without noise) rad/s
Velocity Lambda - Tracking • Simulation (With cogging, without noise) rad/s
Velocity Lambda - Tracking • Simulation (With cogging, without noise) rad/s
Velocity Lambda - Tracking • Experiment
Velocity Lambda - Tracking • Experiment (Without cogging) rad/s
Velocity Lambda - Tracking • Experiment (Without cogging) rad/s
Velocity Lambda - Tracking • Experiment (Without cogging) rad/s
Velocity Lambda - Tracking • Experiment (With cogging , ) rad/s
Velocity Lambda - Tracking • Experiment (With cogging , ) rad/s
Velocity Lambda - Tracking • Experiment (With cogging , ) rad/s
Outline • Velocity Lambda – Tracking • Dynamics and Control Law • Simulation • Experiment • Position Lambda – Tracking • Dynamics and Control Law • Simulation • Experiment
Position Lambda - Tracking • Dynamics and Control Law Relative degree
Position Lambda - Tracking • Simulation block diagram
Position Lambda - Tracking • Simulation (Without noise, without cogging) rad
Position Lambda - Tracking • Simulation (Without noise, without cogging) rad
Position Lambda - Tracking • Simulation (Without noise, without cogging) rad
Position Lambda - Tracking • Simulation (With noise, without cogging) rad
Position Lambda - Tracking • Simulation (With noise, without cogging) rad
Position Lambda - Tracking • Simulation (With noise, without cogging) rad
Position Lambda - Tracking • Simulation (With cogging, without noise) rad
Position Lambda - Tracking • Simulation (With cogging, without noise) rad
Position Lambda - Tracking • Simulation (With cogging, without noise) rad
Position Lambda - Tracking • Experiment
Position Lambda - Tracking • Experiment (Without cogging) rad
Position Lambda - Tracking • Experiment (Without cogging) rad
Position Lambda - Tracking • Experiment (Without cogging) rad
Position Lambda - Tracking • Experiment (Without cogging) rad
Position Lambda - Tracking • Experiment (With cogging , ) rad
Position Lambda - Tracking • Experiment (With cogging , ) rad
Position Lambda - Tracking • Experiment (With cogging , ) rad
A faster response can be obtained using fraction order derivative. We need to do more research on it , for example the rejection of noise and elimination of the serious tremble in the experiments. Conclusion