FORGE decouples robotic tool-use into keypoint trajectory prediction from action-free data and action grounding from limited demonstrations, achieving over 2X improvement in functional generalization to unseen tools.
Object-centric representations improve policy generalization in robot manipulation
2 Pith papers cite this work. Polarity classification is still indexing.
abstract
Visual representations are central to the learning and generalization capabilities of robotic manipulation policies. While existing methods rely on global or dense features, such representations often entangle task-relevant and irrelevant scene information, limiting robustness under distribution shifts. In this work, we investigate object-centric representations (OCR) as a structured alternative that segments visual input into a finished set of entities, introducing inductive biases that align more naturally with manipulation tasks. We benchmark a range of visual encoders-object-centric, global and dense methods-across a suite of simulated and real-world manipulation tasks ranging from simple to complex, and evaluate their generalization under diverse visual conditions including changes in lighting, texture, and the presence of distractors. Our findings reveal that OCR-based policies outperform dense and global representations in generalization settings, even without task-specific pretraining. These insights suggest that OCR is a promising direction for designing visual systems that generalize effectively in dynamic, real-world robotic environments.
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citation-polarity summary
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cs.RO 2years
2026 2roles
background 1polarities
background 1representative citing papers
SID achieves approximately 90% success on six real-world manipulation tasks with only two demonstrations under out-of-distribution initializations, with less than 10% performance drop under distractors and disturbances.
citing papers explorer
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FORGE: Towards Functional Tool-Use Generalization via Keypoint Trajectory Reasoning
FORGE decouples robotic tool-use into keypoint trajectory prediction from action-free data and action grounding from limited demonstrations, achieving over 2X improvement in functional generalization to unseen tools.
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SID: Sliding into Distribution for Robust Few-Demonstration Manipulation
SID achieves approximately 90% success on six real-world manipulation tasks with only two demonstrations under out-of-distribution initializations, with less than 10% performance drop under distractors and disturbances.