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MoMo demonstrates a significant advance in robotic generalization by treating motion style as an independent variable learnable via spatiotemporal action tokenization. This framework allows robots to dynamically adjust execution characteristics like speed and acceleration across different tasks while maintaining performance, effectively decoupling "what" is done from "how" it is performed. Such compositional learning represents a crucial step toward more adaptable and context-aware autonomous manipulation systems.
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MoMo: Dial Motion Mode in Robot Manipulation with Spatiotemporal Action Tokenization

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arXiv:2607.26315v1 Announce Type: new Abstract: To operate effectively across diverse contexts, robots must not only perform manipulation tasks accurately but also adapt how their actions unfold to the task, object, and interaction setting. We ask whether this execution-level variation can be learned as a reusable behavioral factor shared across tasks. We present \textbf{MoMo}, a two-stage imitation-learning framework consisting of a spatiotemporal action tokenizer and a behavior-cloning transformer that takes task and a continuous motion-mode condition as inputs. Across six real-robot manipulation tasks, varying this condition produces steady, dynamic, and intermediate behaviors that human raters can distinguish and that differ in joint speed, acceleration, and end-effector approach pitch. On tasks demonstrated in only one mode, MoMo transfers the unseen requested mode while largely preserving task success. Together, these results provide evidence of compositional generalization to unseen task--mode combinations and show that motion mode can be reused across tasks to control how a manipulation skill is performed.

Abstract:To operate effectively across diverse contexts, robots must not only perform manipulation tasks accurately but also adapt how their actions unfold to the task, object, and interaction setting. We ask whether this execution-level variation can be learned as a reusable behavioral factor shared across tasks. We present \textbf{MoMo}, a two-stage imitation-learning framework consisting of a spatiotemporal action tokenizer and a behavior-cloning transformer that takes task and a continuous motion-mode condition as inputs. Across six real-robot manipulation tasks, varying this condition produces steady, dynamic, and intermediate behaviors that human raters can distinguish and that differ in joint speed, acceleration, and end-effector approach pitch. On tasks demonstrated in only one mode, MoMo transfers the unseen requested mode while largely preserving task success. Together, these results provide evidence of compositional generalization to unseen task--mode combinations and show that motion mode can be reused across tasks to control how a manipulation skill is performed.

Robotics (cs.RO)

arXiv:2607.26315 [cs.RO]

(or arXiv:2607.26315v1 [cs.RO] for this version)

https://doi.org/10.48550/arXiv.2607.26315 Focus to learn more arXiv-issued DOI via DataCite (pending registration)

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