aiqbench analysis
This research introduces a hybrid planning framework for autonomous surface vehicles that combines spatiotemporal informative MPPI control with pure pursuit to effectively balance exploration and tracking of drifting targets. By optimizing continuous trajectories over long horizons, the approach outperforms baselines in field trials, offering a robust solution for dynamic search-and-rescue and environmental cleanup scenarios. The work advances practical robotics by addressing the limitations of short-term predictions in complex, open-water environments.
MPPI-based Informative Trajectory Planning for Search and Capture of Drifting Targets with ASVs
arXiv:2606.12019v1 Announce Type: new Abstract: Autonomous surface vehicles offer an efficient solution for environmental cleanup as well as search and rescue operations in open waters. Targets in these settings drift continuously, so efficient search must balance exploration of unobserved regions with tracking of known targets. However, most target tracking and pursuit scenarios consider simple guidance behaviours and short-term predictions for decision-making. In this letter, we address the problem of search and capture of multiple drifting targets, such as litter, in dynamic environments, using a hybrid planning framework. A key aspect of our strategy is a spatiotemporal informative planning method based on model predictive path integral (MPPI) control, a sampling-based model predictive control approach. The planner directly generates kinematic-level commands by optimising continuous trajectories over long horizons. A multi-objective cost balances search and tracking objectives while ensuring safe, feasible trajectories. In the interception stage, we switch to a pure pursuit guidance controller for the physical capture of moving targets. Experiments show that our planner outperforms the chosen planning baselines. Finally, we validate our approach in field trials with an ASV.
Abstract:Autonomous surface vehicles offer an efficient solution for environmental cleanup as well as search and rescue operations in open waters. Targets in these settings drift continuously, so efficient search must balance exploration of unobserved regions with tracking of known targets. However, most target tracking and pursuit scenarios consider simple guidance behaviours and short-term predictions for decision-making. In this letter, we address the problem of search and capture of multiple drifting targets, such as litter, in dynamic environments, using a hybrid planning framework. A key aspect of our strategy is a spatiotemporal informative planning method based on model predictive path integral (MPPI) control, a sampling-based model predictive control approach. The planner directly generates kinematic-level commands by optimising continuous trajectories over long horizons. A multi-objective cost balances search and tracking objectives while ensuring safe, feasible trajectories. In the interception stage, we switch to a pure pursuit guidance controller for the physical capture of moving targets. Experiments show that our planner outperforms the chosen planning baselines. Finally, we validate our approach in field trials with an ASV.
Robotics (cs.RO)
arXiv:2606.12019 [cs.RO]
(or arXiv:2606.12019v1 [cs.RO] for this version)
https://doi.org/10.48550/arXiv.2606.12019 Focus to learn more arXiv-issued DOI via DataCite (pending registration)
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