Keywords
differential drive, PID controller, motion trajectory, real-time speed control, skid steering, SMP mobile robot, surface mobility control
Document Type
Research Article
Abstract
Surface mobility control is a fundamental challenge in robotics, and its applications range from autonomous vehicles to industrial automation. The main aim of the paper is to analyse the PID controller parameters for the speed control of a surface mobility platform mobile robot. MATLAB simulation toolbox and mathematical model of the DC motor are used to find the optimal PID controller parameters to complete the DC motor speed control system. For the SMP motion control system, the mobile robot kinematic model is supported as a differential drive system. In this paper, the PID controller parameters for the DC motor control system are analysed with simulation results using various KP, KI, KD gains. The experimental results of the SMP mobile robot with optimal PID controller parameters are analysed by driving on the rough, slope and even terrains. According to simulation results and experimental tests, the proposed system effectively controls the speed of the SMP mobile robot, demonstrating satisfactory performance in terms of settling time, rise time, and system overshoot. Among PI and PID controllers, the designed PID controller can quickly control to reach the desired DC motor speed. Using the optimal PID coefficient parameters, all motors reached their desired speed in 0.12 seconds during simulations. In the experimental tests on various terrain (even, slope and rough), all motors achieved their desired speed simultaneously within 25 seconds
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Recommended Citation
Ma Maung, Lwin Ma; San, Aung Myat; Myint, Wai Mar; Win, Wut Yi; and Soe, Min Thu
(2024)
"Analysis of the PID Controller Parameters for a Surface Mobility Platform Mobile Robot,"
Platform: A Journal of Engineering (PAJE): Vol. 8:
Iss.
2, Article 4.
DOI: https://doi.org/10.61762/pajevol8iss2art27049
Available at:
https://journal.utp.edu.my/paje/vol8/iss2/4
Publication Date
28-6-2024
First Page
29
Last Page
40


