aiqbench analysis
This research introduces BAVO-Bench, a new benchmark designed specifically to evaluate robotic policies' ability to recover from occlusions using active vision strategies. The proposed A-FAR policy leverages a pretrained 4D model to provide future-aware geometric guidance, significantly improving robustness against both structured and temporally shifted visual blockages without requiring future observations at deployment. By unifying moving-camera observations into a robot-centric 3D frame, this work advances the state of physical active vision for reliable bimanual manipulation in partially observable environments.
Recovering the View: Benchmarking Physical Active Vision for Occlusion Recovery in Robotic Manipulation
arXiv:2609.37292v1 Announce Type: new Abstract: Physical active vision allows robots to change their viewpoint when task-relevant observations become unreliable, yet existing manipulation benchmarks provide limited support for studying how policies recover from occlusion during execution. We introduce BAVO-Bench (Bimanual Active Vision under Occlusion), a bimanual active-vision benchmark that systematically controls external visibility through Clean, Stage Occlusion, and Random-time Occlusion conditions, enabling evaluation of both manipulation performance and active visual recovery. Building on this setting, we present A-FAR (Active Future-Aware Recovery), an active-vision policy for joint viewpoint and manipulation control. A-FAR represents moving-camera observations in a unified robot-centric 3D frame and distills relational structure together with its future evolution from a pretrained 4D model, providing the policy with future-aware geometric guidance without requiring future observations at deployment. Experiments across multiple manipulation tasks show that A-FAR improves robustness to both structured and temporally shifted occlusions while maintaining strong performance under clean observations.
Abstract:Physical active vision allows robots to change their viewpoint when task-relevant observations become unreliable, yet existing manipulation benchmarks provide limited support for studying how policies recover from occlusion during execution. We introduce BAVO-Bench (Bimanual Active Vision under Occlusion), a bimanual active-vision benchmark that systematically controls external visibility through Clean, Stage Occlusion, and Random-time Occlusion conditions, enabling evaluation of both manipulation performance and active visual recovery. Building on this setting, we present A-FAR (Active Future-Aware Recovery), an active-vision policy for joint viewpoint and manipulation control. A-FAR represents moving-camera observations in a unified robot-centric 3D frame and distills relational structure together with its future evolution from a pretrained 4D model, providing the policy with future-aware geometric guidance without requiring future observations at deployment. Experiments across multiple manipulation tasks show that A-FAR improves robustness to both structured and temporally shifted occlusions while maintaining strong performance under clean observations.
Robotics (cs.RO)
arXiv:2609.37292 [cs.RO]
(or arXiv:2609.37292v1 [cs.RO] for this version)
https://doi.org/10.48550/arXiv.2609.37292 Focus to learn more arXiv-issued DOI via DataCite (pending registration)
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