Authors
Jérôme Guzzi, R Omar Chavez-Garcia, Mirko Nava, Luca Maria Gambardella, Alessandro Giusti
Publication date
2020/2/10
Journal
IEEE Robotics and Automation Letters
Volume
5
Issue
2
Pages
2586-2593
Publisher
IEEE
Description
We introduce a novel approach to long-range path planning that relies on a learned model to predict the outcome of local motions using possibly partial knowledge. The model is trained from a dataset of trajectories acquired in a self-supervised way. Sampling-based path planners use this component to evaluate edges to be added to the planning tree. We illustrate the application of this pipeline with two robots: a complex, simulated, quadruped robot (ANYmal) moving on rough terrains; and a simple, real, differential-drive robot (Mighty Thymio), whose geometry is assumed unknown, moving among obstacles. We quantitatively evaluate the model performance in predicting the outcome of short moves and long-range paths; finally, we show that planning results in reasonable paths.
Total citations
20202021202220232024189128
Scholar articles
J Guzzi, RO Chavez-Garcia, M Nava, LM Gambardella… - IEEE Robotics and Automation Letters, 2020