Ir directamente a la navegación principal Ir directamente a la búsqueda Ir directamente al contenido principal

Open-Access Simulation Platform and Motion Control Design for a Surface Robotic Vehicle in the VRX Environment

  • Brayan Saldarriaga-Mesa
  • , Julio Montesdeoca
  • , Dennys Báez
  • , Flavio Roberti
  • , Juan Marcos Toibero

Producción científica: Contribución a una revistaArtículorevisión exhaustiva

Resumen

This work presents an open-source simulation framework designed to extend the capabilities of the VRX environment for developing and validating control strategies for surface robotic vehicles. The platform features a custom monohull, kayak-type USV with four thrusters in differential configuration, represented with a complete graphical mockup consistent with its physical design and modeled with realistic dynamics and sensor integration. A thrust mapping function was calibrated using manufacturer data, and the vehicle’s behavior was characterized using a simplified Fossen model with parameters identified via Least Squares estimation. Multiple motion controllers, including velocity, position, trajectory tracking, and path guidance, were implemented and evaluated in a variety of wave and wind scenarios designed to test the full vehicle dynamics and closed-loop behavior. In addition to extending the VRX simulator, this work introduces a new USV model, a calibrated thrust response, and a set of model-based controllers validated in high-fidelity marine conditions. The resulting framework constitutes a reproducible and extensible resource for the marine robotics community, with direct applications in robotic education, perception, and advanced control systems.

Idioma originalInglés
Número de artículo147
PublicaciónRobotics
Volumen14
N.º10
DOI
EstadoPublicada - oct. 2025

Nota bibliográfica

Publisher Copyright:
© 2025 by the authors.

ODS de las Naciones Unidas

Este resultado contribuye a los siguientes Objetivos de Desarrollo Sostenible

  1. ODS 14: Vida submarina
    ODS 14: Vida submarina

Citar esto