Real-Time Optimization Improved Model Predictive Control Trajectory Tracking for a Surface and Underwater Joint Observation System Based on Genetic Algorithm–Fuzzy Control

• Published in: Remote sensing (Basel, Switzerland) Vol. 17; no. 5; p. 925
• Main Authors: Wu, Qichao, Nie, Yunli, Wang, Shengli, Zhang, Shihao, Wang, Tianze, Huang, Yizhe
• Format: Journal Article
• Language: English
• Published: Basel MDPI AG 01.03.2025
• Subjects: Accuracy; Adaptive algorithms; Algorithms; Analysis; Artificial intelligence; Control algorithms; Controllers; Deep learning; Fuzzy control; genetic algorithm; Genetic algorithms; IMPC; Mathematical models; Neural networks; Objective function; Optimization; Oscillations; Predictive control; Real time; real-time optimization; Remote monitoring; Remote sensing; remote sensing monitoring; Remote sensing systems; Tracking errors; Tracking problem; Trajectories; trajectory tracking; Underwater
• ISSN: 2072-4292; 2072-4292
• DOI: 10.3390/rs17050925

Aiming at the high-precision trajectory tracking problem of the new surface and underwater joint observation system (SUJOS) in the ocean remote sensing monitoring mission under complex sea conditions, especially at the problem of excessive tracking errors and slow convergence of actual trajectory oscillations caused by the wide range of angular changes in the motion trajectory, a real-time optimization improved model predictive control (IMPC) trajectory tracking method based on fuzzy control is proposed. Initially, the novel observation platform has been designed, and its mathematical model has been systematically established. In addition, this study optimizes the MPC trajectory tracking framework by integrating the least squares adaptive algorithm and the Extended Alternating Direction Method of Multipliers (EADMM). In addition, a fuzzy controller, optimized using a genetic algorithm, an output of real-time optimization coefficients, is employed to dynamically adjust and optimize the bias matrix within the objective function of the IMPC. Consequently, the real-time performance and accuracy of the system’s trajectory tracking are significantly enhanced. Ultimately, through comprehensive simulation and practical experimental verification, it is demonstrated that the real-time optimization IMPC algorithm exhibits commendable real-time and optimization performance, which markedly enhances the accuracy for trajectory tracking, and further validates the stability of the controller.