arXiv:2611.04974v1 Announce Type: cross
Abstract: We investigate the automated generation of executable robot reinforcement learning (RL) policies from natural-language task descriptions. Rather than using large language models (LLMs) as execution-time decision makers, we use them as designers that construct RL pipelines before deployment, including Markov decision process (MDP) formulation and simulator implementation. We identify a phase-wise structure in this problem: MDP formulation is dependency-structured and sequential, whereas simulator implementation becomes modular once the formulation is fixed. Based on this structure, we propose ARPG, a dependency-aware agentic framework that performs sequential MDP modeling, localized verification and correction, and simulator-structured implementation while externalizing intermediate artifacts. ARPG targets a key failure mode of automated policy generation: executable code may still yield non-learnable policies when state, action, reward, and termination artifacts are not semantically aligned. Experiments in Isaac Sim show that ARPG improves modeling correctness, environment executability, and policy-generation success compared with monolithic LLM baselines and off-the-shelf agentic systems. Additional demonstrations on custom robotics, standard RL, and engineering-domain MDPs further suggest that the same modeling pipeline can be reused beyond the main benchmark suite.
arxiv
ARPG: Dependency-Aware Agentic Framework for Automated Robot Policy Generation
The paper introduces ARPG, a framework that uses LLMs as designers to automatically generate executable robot reinforcement learning policies from natural-language task descriptions. It decomposes the process into sequential MDP formulation and modular simulator implementation, with localized verification and correction to ensure semantic alignment of state, action, reward, and termination. Experiments in Isaac Sim show improved modeling correctness, environment executability, and policy-generation success over baselines.
Provides a concrete, recent AI development with a novel framework and experimental validation, useful for researchers and practitioners in robot learning and LLM agents.
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