Autonomous Discovery of Robot Structure and Motion Control Through Large Vision Models

This paper introduces an algorithm for autonomous self-modeling of robots through the integration of Large Vision Model (LVM) and Large Language Model (LLM). Our approach differs from traditional robotic approaches in that it enables robots to independently discover and refine their own body structure and control strategies using only partial information. Through a symbiotic process that includes LLM’s ability to generate predictive control code based on finite prompts, and LVM’s visual reasoning to validate and improve those predictions, our algorithm facilitates a self-learning loop. This cycle is characterized by an inner loop of assumptions, observations, and adjustments, supplemented by an outer loop that gradually increases the information provided until convergence is reached. The effectiveness of the process was quantified by measuring the difference between the expected and actual joint motion as a cost function to determine the minimum feasible prompt (MVP). Simulation results indicate that the algorithm is capable of self-modeling of with minimal initial information.

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Publication Details

Published
2024-08-08
DOI
https://doi.org/10.1109/cis-ram61939.2024.10673339
Citations
1
Primary Topic
Robot Manipulation and Learning
Type
article
Field-Weighted Citation Impact
0.33

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article

Autonomous Discovery of Robot Structure and Motion Control Through Large Vision Models

Xiaohui Li, Jinqiang Cui, Zhao Zhang, Xiaoyu Guo et al.
1 citations
Robot Manipulation and Learning
0.33
article

Autonomous Discovery of Robot Structure and Motion Control Through Large Vision Models

Xiaohui Li, Jinqiang Cui, Zhao Zhang, Xiaoyu Guo, Lian Liu
article en
1 citations

Abstract

This paper introduces an algorithm for autonomous self-modeling of robots through the integration of Large Vision Model (LVM) and Large Language Model (LLM). Our approach differs from traditional robotic approaches in that it enables robots to independently discover and refine their own body structure and control strategies using only partial information. Through a symbiotic process that includes LLM’s ability to generate predictive control code based on finite prompts, and LVM’s visual reasoning to validate and improve those predictions, our algorithm facilitates a self-learning loop. This cycle is characterized by an inner loop of assumptions, observations, and adjustments, supplemented by an outer loop that gradually increases the information provided until convergence is reached. The effectiveness of the process was quantified by measuring the difference between the expected and actual joint motion as a cost function to determine the minimum feasible prompt (MVP). Simulation results indicate that the algorithm is capable of self-modeling of with minimal initial information.

Peng Cheng Laboratory (CN), South China University of Technology (CN)
China Postdoctoral Science Foundation
Openalex Percentile: Top 42%
Robot Manipulation and Learning
0.33
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