aiqbench analysis
FlashNav addresses the critical bottleneck of training time in Deep Reinforcement Learning by leveraging GPU-accelerated simulation and efficient data collection strategies to deploy navigation policies in under 30 seconds. This advancement significantly accelerates the iteration cycle for diverse robotic platforms, from wheeled units to humanoids, without requiring retraining for new configurations. The work represents a substantial efficiency gain in applying AI-driven control algorithms to real-world robotics scenarios.
FlashNav: Training Deployable Robot Navigation Policies in Seconds
arXiv:2606.15846v2 Announce Type: replace Abstract: Training Deep Reinforcement Learning (DRL) navigation policies for different robot configurations remains time-consuming. We present FlashNav, a GPU-based framework that trains robot-specific navigation policies within tens of seconds. A unified robot specification configures a lightweight simulator for batched motion updates, range sensing, and footprint collision checking over a shared occupancy map. The framework supports nonconvex footprints, different sensor configurations and drive types. Blockwise ray queries and selective observation recomputation after resets reduce simulation overhead, while GPU-resident replay and overlapping experience collection and learner updates support efficient off-policy training. Experiments covered five robot configurations and three computing platforms. With FastDSAC on a single RTX 5090 GPU, FlashNav can train a deployable navigation policy in under 30 seconds. FlashNav achieved the highest success rate and score in the benchmark comparison. The selected policies were deployed on wheeled, quadrupedal, humanoid, and irregularly shaped robots without additional policy training.
Abstract:Training Deep Reinforcement Learning (DRL) navigation policies for different robot configurations remains time-consuming. We present FlashNav, a GPU-based framework that trains robot-specific navigation policies within tens of seconds. A unified robot specification configures a lightweight simulator for batched motion updates, range sensing, and footprint collision checking over a shared occupancy map. The framework supports nonconvex footprints, different sensor configurations and drive types. Blockwise ray queries and selective observation recomputation after resets reduce simulation overhead, while GPU-resident replay and overlapping experience collection and learner updates support efficient off-policy training. Experiments covered five robot configurations and three computing platforms. With FastDSAC on a single RTX 5090 GPU, FlashNav can train a deployable navigation policy in under 30 seconds. FlashNav achieved the highest success rate and score in the benchmark comparison. The selected policies were deployed on wheeled, quadrupedal, humanoid, and irregularly shaped robots without additional policy training.
Robotics (cs.RO)
arXiv:2606.15846 [cs.RO]
(or arXiv:2606.15846v2 [cs.RO] for this version)
https://doi.org/10.48550/arXiv.2606.15846 Focus to learn more arXiv-issued DOI via DataCite
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