Implementation of a self-developed model predictive control scheme for vehicle parking maneuvers
Gerg\H{o} Ign\'eczi, Ern\H{o} Horv\'ath, D\'aniel Pup

TL;DR
This paper presents a self-developed model predictive control scheme for vehicle parking maneuvers, utilizing a kinematic bicycle model within a Simulink and ROS framework, validated through simulations and prepared for real-world testing.
Contribution
The paper introduces a custom MPC controller for parking, integrating it into a simulation environment, and demonstrating its effectiveness for autonomous vehicle parking.
Findings
Controller successfully manages parking maneuvers in simulations
Validated with LGSVL simulation framework
Ready for real vehicle implementation
Abstract
In this paper a self-developed controller algorithm is presented with the goal of handling a basic parking maneuver. One of the biggest challenges of autonomous vehicle control is the right calibration and finding the right vehicle models for the given conditions. As a result of many other research, model predictive control (MPC) structures have started to become the most promising control technique. During our work we implemented an MPC function from white paper. Considering the low-speed conditions of a parking maneuver we use a kinematic bicycle model as the basis of the controller. The algorithm has two main inputs: a planned trajectory and the vehicle state feedback signals. The controller is realized as a Simulink model, and it is integrated into a complete autonomous control system using ROS framework. The results are validated through multiple steps: using Simulink only with a…
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Taxonomy
TopicsVehicle Dynamics and Control Systems · Real-time simulation and control systems · Advanced Control Systems Optimization
