Cascaded PID Control System for UAV with Gain Factor Prediction Using ML
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Drones are not inherently stable, necessitating the use of a flight controller. If the UAV is properly tuned, the drone will fly steadily; otherwise, it won't. Hence, we have used a PID (proportional, integral, differential) controller for a stable flight. A well-functioning PID controller should enable amazing climbs and long-range flights. But, when used singly, PID controllers can provide poor performance, resulting in a long settling time, overshoot, and oscillation. Here, we propose a new approach to maneuver UAVs using a PID control system and overcome the shortcomings of using PID controllers in UAVs. This disadvantage is resolved using the Machine Learning polynomial regression model. The gain factors in a PID control system, which is otherwise ideally constant, should be changed in order to reduce the minor instabilities for a smooth flight. Our method has been elaborated and illustrated with suitable diagrams in the following work. When simulated in Gazebo on a Robot Operating System (ROS), our technique is proven to be successful.
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APA
Shah, P., Bedmutha, P., Goje, S., & Agrawal, J. (2026). Cascaded PID Control System for UAV with Gain Factor Prediction Using ML. Afribary. Retrieved June 14, 2026, from http://library.afribary.com/works/cascaded-pid-control-system-for-uav-with-gain-factor-prediction-using-ml
MLA
Shah, Prajwal, et al.. "Cascaded PID Control System for UAV with Gain Factor Prediction Using ML." Afribary, 7 Jun. 2026, http://library.afribary.com/works/cascaded-pid-control-system-for-uav-with-gain-factor-prediction-using-ml. Accessed June 14, 2026.
Chicago
Shah, Prajwal, Poorva Bedmutha, Shubhankar Goje, and Jagruti Agrawal. "Cascaded PID Control System for UAV with Gain Factor Prediction Using ML." Afribary (2026). Accessed June 14, 2026. http://library.afribary.com/works/cascaded-pid-control-system-for-uav-with-gain-factor-prediction-using-ml