HuMBLE: Human Motion-Driven Behavior Learning for Embodied Locomotion
This study addresses the inherent trade-off between mechanically rigid gaits and limited command generalization in humanoid robots by proposing a control framework that integrates human motion priors with multi-task reinforcement learning. The method extracts naturalistic kinematic features via teacher-student knowledge distillation, followed by multi-task reinforcement fine-tuning to achieve robust tracking of out-of-distribution velocity commands while preserving biomechanical anthropomorphism. Experimental results demonstrate that the proposed policy enables real-time, controllable, and robust human-like locomotion across both indoor and outdoor environments on physical Atlas and Unitree G1 platforms. It significantly outperforms data-free baselines while offering distinct advantages for lightweight deployment.