4.7 Article

Adaptive Path-Following Control for Autonomous Semi-Trailer Docking

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出版社

IEEE-INST ELECTRICAL ELECTRONICS ENGINEERS INC
DOI: 10.1109/TVT.2021.3125131

关键词

Kinematics; Vehicle dynamics; Robustness; Mathematical models; Control systems; Task analysis; Vehicles; Advanced driver assistance systems; autonomous parking; path-following; gain scheduling; trailer stabilization

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This article presents an enhanced path-following control framework for autonomous semi-trailer docking. The proposed system introduces adaptive controllers and gain scheduling to improve the robustness and performance of path-following tasks in docking. The evaluation results, obtained through simulation and physical testing, show improvements in terms of control problem formulation and acceptable path-following errors.
Maneuvering a truck-trailer system while docking is extremely challenging. This article aims to alleviate this problem by presenting an enhanced path-following control framework for autonomous semi-trailer docking. In the proposed system, adaptive controllers that utilize gain scheduling are introduced for forward and reverse path-following tasks in docking maneuvers to increase the robustness and path-following performance. The system includes an improved pure pursuit controller with adaptive look-ahead distance for forward path following; a cascade controller of reverse pure pursuit and a gain-scheduled LQ control for reverse path-following. In the evaluation of the path-following performance of forward and reverse controllers, the closed-loop system of path-following controllers with the truck-trailer kinematic model is simulated in MATLAB/Simulink for various test cases, and the results are compared with those of other studies. Furthermore, different docking scenarios are generated via the cascade path planning algorithm for autonomous semitrailer docking. These are tested with a high degree semi-trailer model within the IPG TruckMaker simulation environment, and with a full truck-trailer vehicle in the test field. The results of both simulations and physical testing clearly demonstrate improvements in terms of the control problem formulation, i.e., the stabilized path-following is obtained with acceptable path-following errors.

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