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EgoLAP bridges the embodiment gap in robot learning by leveraging egocentric human data through a language-based chain-of-thought framework that extracts transferable motion intent. This approach enables robots to achieve significantly higher task progress rates by grounding abstract reasoning in scene geometry and physics, effectively scaling beyond expensive direct robot demonstrations. The method demonstrates that structured language actions can outperform traditional composite reasoning formats for generalizing human experience to robotic control.
EgoLAP: Learning from Egocentric Human Data through Language-Action Reasoning
arXiv:2610.08726v1 Announce Type: cross Abstract: Egocentric human data offer a path to scaling robot learning beyond costly robot demonstrations, yet the embodiment gap makes raw human trajectories a poor supervisory target for control. Our key insight is that, although low-level actions are embodiment-specific, their underlying motion intent can capture task-relevant structure that transfers across humans and robots. We introduce EgoLAP, a VLA pre-training framework that jointly learns from human and robot trajectories through a shared language-based action chain-of-thought. EgoLAP expresses motion intent as structured, temporally abstracted language actions and pairs them with motion-level reasoning grounded in scene geometry, physics, and object affordances. Across extensive real-world and simulated experiments, EgoLAP transfers human experience to robot control more effectively than alternative action representations and reaches 80.1% mean real-world task progress, a 2.3x performance gain over alternative action representations. Motion-level reasoning also outperforms a composite reasoning format that combines subtask, object-box, and visual-trace reasoning.
Abstract:Egocentric human data offer a path to scaling robot learning beyond costly robot demonstrations, yet the embodiment gap makes raw human trajectories a poor supervisory target for control. Our key insight is that, although low-level actions are embodiment-specific, their underlying motion intent can capture task-relevant structure that transfers across humans and robots. We introduce EgoLAP, a VLA pre-training framework that jointly learns from human and robot trajectories through a shared language-based action chain-of-thought. EgoLAP expresses motion intent as structured, temporally abstracted language actions and pairs them with motion-level reasoning grounded in scene geometry, physics, and object affordances. Across extensive real-world and simulated experiments, EgoLAP transfers human experience to robot control more effectively than alternative action representations and reaches 80.1% mean real-world task progress, a 2.3x performance gain over alternative action representations. Motion-level reasoning also outperforms a composite reasoning format that combines subtask, object-box, and visual-trace reasoning.
Robotics (cs.RO); Artificial Intelligence (cs.AI)
arXiv:2610.08726 [cs.RO]
(or arXiv:2610.08726v1 [cs.RO] for this version)
https://doi.org/10.48550/arXiv.2610.08726 Focus to learn more arXiv-issued DOI via DataCite (pending registration)
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