让大模型通过仿真实验优化制药工艺参数,提升决策精准度。
LLM Agents Perform Controlled Experiments Using Simulation Models

- 构建多智能体框架,结合大模型与高保真仿真进行可控实验。
- 实验结果表明输出更具体,用户评分正确率和帮助性显著提升。
- 适合需要科学推理与参数优化的工业研发场景。
大型语言模型(LLMs)在推理、规划和工具使用方面表现出强大能力,但许多科学与工程任务不仅需要生成合理的文本和代码,还需理解系统对干预措施的响应,这在实践中依赖于受控实验。本文提出一种多智能体框架,使LLM智能体能够利用科学仿真模型开展制药工艺设计的受控实验。给定用户查询和基准配置后,系统构建结构化任务表示,设计实验方案,执行对比仿真,分析结果并生成基于证据的参数优化建议。通过将语言模型与高保真仿真模型在交互式智能体框架中耦合,该系统支持通过干预、比较与观察进行推理。相比纯语言模型推理,其输出更具针对性和可操作性。在工业应用中,该方法显著提升了输出的具体性,以及用户评估的正确率和帮助性。消融实验与可视化案例分析进一步验证了仿真集成实验推理的有效性与实用性。
原文摘要 · Abstract (English)
Large language models (LLMs) have shown strong capabilities in reasoning, planning, and tool use, but many scientific and engineering tasks require more than plausible text and code generation. They require understanding how a system responds to intervention, which in practice depends on controlled experimentation. In this work, we propose a multi-agent framework that enables LLM agents to conduct controlled experiments with scientific simulation models for pharmaceutical process design. Given a user query and a baseline configuration, the system constructs a structured task representation, designs experiments, executes comparative simulation, interprets the resulting outcomes, and synthesizes evidence-based recommendations for process parameter optimization. By coupling language models with high-fidelity simulation models in an interactive agent framework, the proposed system supports reasoning through intervention, comparison, and observation. As a result, it produces more specific and actionable outputs than language-only reasoning. In an industrial application setting, this advantage is reflected in higher output specificity as well as improved user-rated correctness and helpfulness. Ablation studies and visualized case analyses further demonstrate the effectiveness and practical utility of simulation-integrated experimental reasoning.
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