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Performance of Kinematic, Backstepping, and Pure Pursuit Controllers for Multi-Robot Traffic Lane Closure

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Resumen

This paper presents a simulation-based approach for controlling a system of three autonomous cone-robots designed for the gradual closure of high-traffic roads in maintenance scenarios. The study examines the enhancement of the robots' trajectory tracking through a cascade control system that incorporates an inner-loop PID controller for motor speed regulation and an outer-loop trajectory controller. Three different trajectory control strategies-kinematic, backstepping, and pure pursuit-are proposed and compared using multiple reference paths. For validation purposes, the selected control architecture is then integrated into a simulated 3D environment replicating real-world road conditions, allowing for an in-depth evaluation of the proposal. The results demonstrate that the combination of a PI controller for motor speed control and a pure pursuit algorithm for trajectory tracking provides the best trade-off between accuracy and responsiveness.

Idioma originalInglés
Título de la publicación alojadaC3 2025 - IEEE Colombian Caribbean Conference
EditoresYesica Beltran Gomez, Paul Sanmartin Mendoza
EditorialInstitute of Electrical and Electronics Engineers Inc.
ISBN (versión digital)9798331571429
DOI
EstadoPublicada - 2025
Evento2025 IEEE Colombian Caribbean Conference, C3 2025 - Santa Marta, Colombia
Duración: 17 set. 202520 set. 2025

Serie de la publicación

NombreC3 2025 - IEEE Colombian Caribbean Conference

Conferencia

Conferencia2025 IEEE Colombian Caribbean Conference, C3 2025
País/TerritorioColombia
CiudadSanta Marta
Período17/09/2520/09/25

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