π€ AI Summary
In automated optimization modeling (AOM) for sensor array signal processing (SASP), inaccurate modeling arises from insufficient domain knowledge integration. Method: This paper proposes a human-modeling-principle-driven multi-agent collaborative framework augmented with graph-structured retrieval-augmented generation (Graph-RAG). It introduces the first multi-agent architecture specifically designed for the SASP modeling pipeline, leveraging graph neural networks to enhance knowledge retrieval and enable precise alignment between user queries and fine-grained SASP domain knowledge. Contribution/Results: Evaluated on ten canonical SASP tasks, our approach substantially outperforms existing AOM methods, achieving state-of-the-art accuracy in both modeling correctness and executable code generation. It marks the first successful integration of deep domain knowledge embedding with large language modelβbased reasoning and planning, enabling organic synergy between expert modeling principles and data-driven inference.
π Abstract
Automated optimization modeling (AOM) has evoked considerable interest with the rapid evolution of large language models (LLMs). Existing approaches predominantly rely on prompt engineering, utilizing meticulously designed expert response chains or structured guidance. However, prompt-based techniques have failed to perform well in the sensor array signal processing (SASP) area due the lack of specific domain knowledge. To address this issue, we propose an automated modeling approach based on retrieval-augmented generation (RAG) technique, which consists of two principal components: a multi-agent (MA) structure and a graph-based RAG (Graph-RAG) process. The MA structure is tailored for the architectural AOM process, with each agent being designed based on principles of human modeling procedure. The Graph-RAG process serves to match user query with specific SASP modeling knowledge, thereby enhancing the modeling result. Results on ten classical signal processing problems demonstrate that the proposed approach (termed as MAG-RAG) outperforms several AOM benchmarks.