Towards Sustainable Transportation: Adaptive Trajectory Tracking Control Strategies of a Four-Wheel-Steering Autonomous Vehicle for Improved Stability and Efficacy

被引:0
|
作者
Al-saedi, Mazin I. [1 ]
AL-bawi, Hiba Mohsin Abd Ali [2 ]
机构
[1] Middle Tech Univ, Tech Instructors Training Inst, Baghdad 10071, Iraq
[2] Al Mustaqbal Univ, Coll Engn & Technol, Mech Power Tech Engn Dept, Babylon 51001, Iraq
关键词
adaptive control; block backstepping; four-wheel steering; autonomous vehicle; electrical vehicle; lane changing; Lyapunov theory; FUZZY-LOGIC; DESIGN; SYSTEMS; YAW;
D O I
10.3390/pr12112401
中图分类号
TQ [化学工业];
学科分类号
0817 ;
摘要
The objective of continuous increase in the evolution of autonomous and intelligent vehicles is to attain a trustworthy, economical, and safe transportation system. Four-wheel steering (4WS) vehicles are favored over traditional front-wheel steering (FWS) vehicles because they have excellent dynamic characteristics. This paper exhibits the trajectory tracking task of a two degree of freedom (2DOF) underactuated 4WS Autonomous Vehicle (AV). Because the system is underactuated, MIMO, and has a nontriangular form, the traditional adaptive backstepping control scheme cannot be utilized to control it. For the purpose of rectifying this issue, two-state feedback-based methods grounded on the hierarchical steps of the block backstepping controller are proposed and compared in this paper. In the first strategy, a modified block backstepping is applied for the entire dynamic system. Global stability of the overall system is manifested by Lyapunov theory and Barbalat's Lemma. In the second strategy, a block backstepping controller has been applied after a reduction of the high-order model into various first-order subsystems, consisting of Lyapunov-based design and stability warranty. A trajectory tracking controller that can follow a double lane change path with high accuracy is designed, and then simulation experiments of the CarSim/Simulink connection are carried out against various vehicle longitudinal speeds and road surface roughness to demonstrate the effectiveness of the presented controllers. Furthermore, a PID driver model is introduced for comparison with the two proposed controllers. Simulation outcomes show that the proposed controllers can attain good response implementation and enhance the 4WS AV performance and stability. Indeed, enhancement of the stability and efficacy of 4WS autonomous vehicles would afford a sustainable transportation system by lessening fuel consumption and gas emissions.
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页数:27
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