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Paper · arXiv

Higher-Order Morphology Priors for Quadruped Reinforcement Learning Under Actuator Degradation

Actuator degradation turns quadruped locomotion into a coordination problem requiring joints to compensate for lost actuation. Prior work suggests that morphology-aware graph policies improve learning and generalization under body perturbations. We ask whether these benefits can be strengthened by explicitly modeling higher-order mechanical structure. We represent the Unitree Go1 as a cell complex with limb- and body-level rank-2 cells and apply Hodge-based message passing. Under degradation training, the node-edge-face Hodge actor achieves the highest return on unseen actuator degradations, with higher survival and lower velocity-tracking error. These results support higher-order morphol...

AuthorsDerek You, Zafir Shamsi, Keqin Wang et al.
Primary categorycs.RO
Published7 October 2026
Last updated at source7 October 2026
cs.ROcs.LG
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