aiqbench analysis
Bi-MoDe introduces a novel framework for contact-rich robotics by enabling operators to modulate execution speed and force intensity through modifier-conditioned decoding in Transformer architectures. This advancement addresses a critical gap in current imitation learning methods, which often lack the flexibility to specify behavioral directives like "gently" or "quickly" at inference time. The approach demonstrates improved adherence to physical constraints while maintaining temporal control, offering significant potential for safer and more adaptable robotic manipulation systems.
Bi-MoDe: Bilateral Control-based Imitation Learning via Modifier-Conditioned Decoding for Modulation of Execution Speed and Contact Intensity
arXiv:2609.16040v1 Announce Type: new Abstract: Bilateral control-based imitation learning captures both position and force information, making it well suited to contact-rich manipulation. However, existing approaches provide limited means for an operator to specify how a learned task should be executed at inference time, such as slowly or quickly, gently or firmly. We propose Bi-MoDe, a modifier-conditioned decoding framework that injects a constrained latent into every layer of the Transformer action decoder via adaLN-Zero, allowing behavioral directives to directly influence action-chunk generation. We evaluate the method on a real-world whiteboard wiping task with combinations of temporal and physical modifiers. Bi-MoDe improves physical directive following over the action-chunking baseline while maintaining comparable temporal control. An ablation further shows that decoder conditioning and latent-space composition interact, and that their combination is important for accurate physical directive following. Additional material is available at the https://mertcookimg.github.io/bi-mode/
Abstract:Bilateral control-based imitation learning captures both position and force information, making it well suited to contact-rich manipulation. However, existing approaches provide limited means for an operator to specify how a learned task should be executed at inference time, such as slowly or quickly, gently or firmly. We propose Bi-MoDe, a modifier-conditioned decoding framework that injects a constrained latent into every layer of the Transformer action decoder via adaLN-Zero, allowing behavioral directives to directly influence action-chunk generation. We evaluate the method on a real-world whiteboard wiping task with combinations of temporal and physical modifiers. Bi-MoDe improves physical directive following over the action-chunking baseline while maintaining comparable temporal control. An ablation further shows that decoder conditioning and latent-space composition interact, and that their combination is important for accurate physical directive following. Additional material is available at the this https URL
Robotics (cs.RO)
arXiv:2609.16040 [cs.RO]
(or arXiv:2609.16040v1 [cs.RO] for this version)
https://doi.org/10.48550/arXiv.2609.16040 Focus to learn more arXiv-issued DOI via DataCite
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