Multi-Vehicle Trajectory Prediction and Control at Intersections using State and Intention Information

Technical University of Munich1, Munich Center for Machine Learning2
*Indicates Equal Contribution

Neurocomputing, Elsevier, 2024

Abstract

Traditional deep learning approaches for prediction of future trajectory of multiple road agents rely on knowing information about their past trajectory. In contrast, this work utilizes information of only the current state and intended direction to predict the future trajectory of multiple vehicles at intersections. Incorporating intention information has two distinct advantages: 1) It allows to not just predict the future trajectory but also control the multiple vehicles. 2) By manipulating the intention, the interaction among the vehicles is adapted accordingly to achieve desired behavior. Both these advantages would otherwise not be possible with using only past trajectory information. Our model utilizes message passing of information between the vehicle nodes for a more holistic overview of the environment, resulting in better trajectory prediction and control of the vehicles. This work also provides a thorough investigation and discussion into the disparity between offline and online metrics for the task of multi-agent control. We particularly show why conducting only offline evaluation would not suffice, thereby necessitating online evaluation. We demonstrate the superiority of utilizing intention information rather than past trajectory in online scenarios. Lastly, we show the capability of our method in adapting to different domains through experiments conducted on two distinct simulation platforms i.e. SUMO and CARLA.


MY ALT TEXT

Our Model

This video shows the performance of our model on CARLA. It was trained with collision cost and data augmentation. Data from other vehicles is also aggregated by the model.

Baseline Model

Similar to our model, however data aggregation from surrounding vehicles is not done. Clearly, the performance deterioration is significant.

BibTeX


@article{multivehicle2023,
  title = {Multi-vehicle trajectory prediction and control at intersections using state and intention information},
  author = {D Zhu and Q Khan and D Cremers},
  journal = {Neurocomputing},
  pages = {127220},
  year = {2024},
  publisher = {Elsevier},
  keywords = {deep learning},
}