Skip to content
arXiv Robotics — research abstracts· Chenghao Sun, Youhao Lyu, Zizheng Li, Shuting Zhang, Ziyang Dong, Wenhao Cui·· 4 days agoSignalEditorial score75

Terrain-Indexed Motion Priors and Geometric Support for Extreme Humanoid Parkour

Terrain-Indexed Motion Priors and Geometric Support for Extreme Humanoid Parkour

Summary

This paper presents a progressive imitation framework that learns terrain-appropriate humanoid parkour skills and adapts hand-knee support. Using demonstrations, the method employs privileged imitation for executable references, terrain-indexed adversarial motion priors for skill acquisition, and geometric support guidance for contact adaptation. On the Noetix E1, the policy achieves 96.34% hybrid success in simulation and transfers without real-world fine-tuning, completing 29 of 30 obstacle trials and four of five hybrid courses.

Editorial context

The study demonstrates a progressive imitation framework on the Noetix E1 humanoid that achieves 96.34% hybrid success in simulation and transfers to real-world trials without policy fine-tuning, completing 29 of 30 obstacle trials and four of five hybrid courses.

Source: arXiv Robotics — research abstracts · Read original article ↗

Loading article text…

What the source reports

Publisher-reported claims, with original evidence. These results have not been independently verified by RoboSignal.

Environment
SimulationOpen source S4

Reported numbers

  • trajectories

    29

    Reported trials

    View original evidence
    on, and velocity commands without an external skill label. On the Noetix E1, the policy achieves 96.34\% hybrid success in simulation and transfers without real-world policy fine-tuning, completing 29 of 30 individual obstacle trials and four of five hybrid courses. Support-adaptation ablations show higher traversal success for the complete adaptation stage on the tested terrains, while qualitative observations show
    Open source S4
  • trajectories

    5

    Reported trials

    View original evidence
    on, and velocity commands without an external skill label. On the Noetix E1, the policy achieves 96.34\% hybrid success in simulation and transfers without real-world policy fine-tuning, completing 29 of 30 individual obstacle trials and four of five hybrid courses. Support-adaptation ablations show higher traversal success for the complete adaptation stage on the tested terrains, while qualitative observations show
    Open source S4
  • trajectories

    30

    Reported trials

    View original evidence
    on, and velocity commands without an external skill label. On the Noetix E1, the policy achieves 96.34\% hybrid success in simulation and transfers without real-world policy fine-tuning, completing 29 of 30 individual obstacle trials and four of five hybrid courses. Support-adaptation ablations show higher traversal success for the complete adaptation stage on the tested terrains, while qualitative observations show
    Open source S4
  • trajectories

    4

    Reported trials

    View original evidence
    on, and velocity commands without an external skill label. On the Noetix E1, the policy achieves 96.34\% hybrid success in simulation and transfers without real-world policy fine-tuning, completing 29 of 30 individual obstacle trials and four of five hybrid courses. Support-adaptation ablations show higher traversal success for the complete adaptation stage on the tested terrains, while qualitative observations show
    Open source S4
  • paper: not_reported
Source excerpts and review record

Automatically extracted; no manual editorial approval recorded.

on, and velocity commands without an external skill label. On the Noetix E1, the policy achieves 96.34\% hybrid success in simulation and transfers without real-world policy fine-tuning, completing 29 of 30 individual obstacle trials and four of five hybrid courses. Support-adaptation ablations show higher traversal success for the complete adaptation stage on the tested terrains, while qualitative observations show

Open source S4

Source:arXiv Robotics — research abstracts · arxiv.org

Timezone · UTC

Article dates follow your selected timezone. Briefing editions use Hong Kong time (UTC+8).