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arXiv Robotics — research abstracts· Kaiyuan Chen, Xinyue Zhu, Shuangyu Xie, Uksang Yoo, Thi Thu Phuong Luong, Marcus Gualtieri, Christian Juette, Liu Ren, Spencer Huang, Ken Goldberg·· 1 days agoSignalEditorial score75

A Controlled Study of Models, Skills, Feedback, and Curriculum in Agentic Robotics

A Controlled Study of Models, Skills, Feedback, and Curriculum in Agentic Robotics

Summary

This research paper presents a controlled simulation study on agentic robotics, investigating how coding agents can iteratively improve robot policies through simulated and real-world interactions. The study spans nine manipulation tasks, 631 experiment configurations, and 28K coding agent rollouts, systematically varying model capability, skill priors, feedback structure, and curriculum. Results indicate that the primary bottleneck is often not information access but interpreting it into correct policy updates. Success depends on agents' ability to attribute failures, reason about task-relevant spatial and geometric structures, and selectively restructure code to improve policies.

Editorial context

This study systematically evaluates the self-learning loop in agentic robotics by varying model capabilities, skill priors, feedback structures, and curriculum across nine manipulation tasks, identifying that effective failure attribution and spatial reasoning are critical bottlenecks for policy improvement.

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

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What the source reports

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

Environment
SimulationOpen source S2

Reported numbers

  • experiment configurations

    631

    View original evidence
    arXiv:2611.09030v1 Announce Type: new Abstract: Agentic robotics asks coding agents to implement and iteratively improve robot policies from simulated and real-world physical interactions. We study the self-learning loop of agentic robotics through a controlled simulation study spanning nine manipulation tasks, 631 different experiment configurations, and 28K coding agent rollouts, systematically varying model capabi
    Open source S2
  • coding agent rollouts

    28,000

    View original evidence
    arXiv:2611.09030v1 Announce Type: new Abstract: Agentic robotics asks coding agents to implement and iteratively improve robot policies from simulated and real-world physical interactions. We study the self-learning loop of agentic robotics through a controlled simulation study spanning nine manipulation tasks, 631 different experiment configurations, and 28K coding agent rollouts, systematically varying model capabi
    Open source S2
  • manipulation tasks

    9

    View original evidence
    arXiv:2611.09030v1 Announce Type: new Abstract: Agentic robotics asks coding agents to implement and iteratively improve robot policies from simulated and real-world physical interactions. We study the self-learning loop of agentic robotics through a controlled simulation study spanning nine manipulation tasks, 631 different experiment configurations, and 28K coding agent rollouts, systematically varying model capabi
    Open source S2
  • paper: not_reported
  • code: not_reported
  • weights: not_reported
  • dataset: not_reported
Source excerpts and review record

Automatically extracted; no manual editorial approval recorded.

arXiv:2611.09030v1 Announce Type: new Abstract: Agentic robotics asks coding agents to implement and iteratively improve robot policies from simulated and real-world physical interactions. We study the self-learning loop of agentic robotics through a controlled simulation study spanning nine manipulation tasks, 631 different experiment configurations, and 28K coding agent rollouts, systematically varying model capabi

Open source S2

A Controlled Study of Models, Skills, Feedback, and Curriculum in Agentic Robotics

Open source S1

lity, skill priors, feedback structure, and curriculum. The experiment data suggests that the bottleneck is often not the access to sufficient information, but interpreting it into the right policy update. Across these factors, a successful self-learning loop depends on how effectively agents attribute failures, reason task-relevant spatial and geometric structure, and selectively restructure code to improve policies

Open source S3

Source:arXiv Robotics — research abstracts · arxiv.org

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