Redirecting to original paper in 30 seconds...
Click below to go immediately or wait for automatic redirect
📄 Abstract
Abstract: Whole-body humanoid motion represents a cornerstone challenge in robotics,
integrating balance, coordination, and adaptability to enable human-like
behaviors. However, existing methods typically require multiple training
samples per motion category, rendering the collection of high-quality human
motion datasets both labor-intensive and costly. To address this, we propose a
novel approach that trains effective humanoid motion policies using only a
single non-walking target motion sample alongside readily available walking
motions. The core idea lies in leveraging order-preserving optimal transport to
compute distances between walking and non-walking sequences, followed by
interpolation along geodesics to generate new intermediate pose skeletons,
which are then optimized for collision-free configurations and retargeted to
the humanoid before integration into a simulated environment for policy
training via reinforcement learning. Experimental evaluations on the CMU MoCap
dataset demonstrate that our method consistently outperforms baselines,
achieving superior performance across metrics. Code will be released upon
acceptance.
Authors (6)
Hao Huang
Geeta Chandra Raju Bethala
Shuaihang Yuan
Congcong Wen
Anthony Tzes
Yi Fang
Submitted
October 29, 2025
Key Contributions
Proposes a novel approach for one-shot humanoid whole-body motion learning, enabling effective motion policies from a single target motion sample plus walking motions. It uses optimal transport and geodesic interpolation to generate intermediate poses, optimized for collision-free configurations and retargeted for RL training.
Business Value
Reduces the significant cost and effort associated with training humanoid robots, accelerating the development and deployment of robots capable of complex, human-like movements in various environments.