Enhancing Quadrotor UAV
Trajectory Tracking Using Adaptive Fuzzy PID Control
Unmanned
aerial vehicles (UAVs) require precise and robust control strategies to ensure
safe and efficient flight. This work focuses on the Adaptive Fuzzy PID (AFPID)
controller as the main method, which integrates classical
Proportional-Integral-Derivative (PID) control with fuzzy logic principles to
achieve real-time parameter adaptation. The PID and fuzzy PID controllers are
considered as baseline methods for performance comparison with the adaptive
fuzzy PID. Simulation was done using MATLAB to evaluate the controllers in
terms of trajectory tracking, settling time, Root Mean Square error and
robustness under disturbance. Since PID and FPID exhibited similar response
shapes to AFPID, only their performance metrics were reported for comparison.
The results demonstrate that all controllers successfully stabilize the UAV
without steady-state error, while AFPID provides slightly improved settling
times and disturbance rejection compared to PID and FPID. These findings
confirm the effectiveness of adaptive fuzzy control as a reliable solution for
UAV path-tracking tasks.
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