Mixture of Knowledge Minigraph Agents for Literature Review Generation
Zhi Zhang, Yan Liu, Sheng-hua Zhong, Gong Chen, Yu Yang, Jiannong Cao
TL;DR
This paper tackles the time-intensive task of literature review by introducing collaborative knowledge minigraph agents (CKMAs) that explicitly model cross-paper relations to guide abstractive summaries. The Knowledge Minigraph Construction Agent (KMCA) builds concise, topic-focused knowledge minigraphs from reference abstracts in iterative chunks, while the Multiple Path Summarization Agent (MPSA) generates and merges multiple viewpoint summaries through a mixture-of-experts framework and a self-consistency-based router. Across three MSDS benchmarks, CKMAs achieve state-of-the-art ROUGE scores, with ablations showing substantial gains from both KMCA and MPSA components, particularly from iterative minigraph construction and path-aware routing. The work demonstrates that structured, graph-informed prompting of LLMs can produce more faithful, concise, and comprehensive literature reviews, suggesting strong practical potential for AI-assisted scientific synthesis.
Abstract
Literature reviews play a crucial role in scientific research for understanding the current state of research, identifying gaps, and guiding future studies on specific topics. However, the process of conducting a comprehensive literature review is yet time-consuming. This paper proposes a novel framework, collaborative knowledge minigraph agents (CKMAs), to automate scholarly literature reviews. A novel prompt-based algorithm, the knowledge minigraph construction agent (KMCA), is designed to identify relations between concepts from academic literature and automatically constructs knowledge minigraphs. By leveraging the capabilities of large language models on constructed knowledge minigraphs, the multiple path summarization agent (MPSA) efficiently organizes concepts and relations from different viewpoints to generate literature review paragraphs. We evaluate CKMAs on three benchmark datasets. Experimental results show the effectiveness of the proposed method, further revealing promising applications of LLMs in scientific research.
