Aug 2026· Proceedings of the 32nd ACM SIGKDD Conference on Knowledge Discovery and Data Mining V.2· pp. 9149-9158· 0 citations· 12 references
Abstract
Peered-reviewed literature provides reliable biomedical knowledge, which is essential for large language models (LLMs) in solving complex biomedical problems. However, how literature is retrieved and presented to LLMs can significantly influence their performance on domain-specific tasks.We present the Genomic Literature Knowledge Base (GLKB) and GLKB Agent to address these challenges. GLKB is a large-scale knowledge graph containing 14.6 million relationships among 3.2 million entities from 33 million PubMed abstracts and nine curated biomedical repositories. The current release includes articles published before March 2025. It supports diverse applications, including reinforcement learning, link prediction, and semantic embedding. The GLKB Agent is an agentic architecture that seamlessly connects LLMs to GLKB. It enables autonomous retrieval, reasoning, and deep research capabilities. Our evaluations demonstrate that the GLKB Agent dramatically improves LLM performance. Eight state-of-the-art LLMs achieve average accuracy gains of 27.5% on PubMedQA-HC, 24.8% on PubMedQA-Artificial, and 6.0% on BioASQ. Ablation tests confirm the agentic architecture is particularly effective for complex reasoning tasks. During datasource ablation tests, GLKB outperforms alternative data sources including PubMed, Wikipedia, and arXiv. Beyond question-answering, GLKB agent also demonstrates deep research capabilities through test-time reasoning. It generates comprehensive reports for literature reviews and hypothesis generation. The GLKB and GLKB Agent together provide a strong foundation for next-generation biomedical AI. Access is available at: https://glkb.org.
This work presents a scalable, reproducible framework for evaluating, optimizing, and interpreting LLMs for biomedical knowledge extraction, with a focus on gene–gene regulatory relation prediction, pathway component recognition, multimodal pathway figure understanding, and automated prompt optimization.
Background Accessing large-scale clinical and biomedical databases remains a significant barrier for clinicians and researchers, requiring substantial computational expertise. Agentic artificial intelligence frameworks, in which large language models (LLMs) orchestrate multi-step reasoning and query execution under int...
Gianmarco Bellucci, W. Gu, Peter W. Rose et al.· Frontiers in Artificial Inte...· 0 citations
Results across multiple benchmarks, model families, and post-cutoff literature support ANCHOR-RE as a practical training-free approach to biomedical literature mining.
Shufan Ming, Yikun Han, Gibong Hong et al.· 0 citations
A systematic study spanning five KG task formulations, three training paradigms, two KGs, and three base LLMs finds that at the task level, all paradigms improve over the non-finetuned baseline, but methods with comparable in-domain accuracy show substantially different knowledge transfer behavior.
Saksham Khatwani, He Cheng, M. Afshar et al.· 0 citations
A knowledge graph generation pipeline that extracts subject-predicate-object triplets representing scientific claims from research articles and implements a multi-stage consolidation process focused on normalizing entities and relations, offering a robust framework for reducing ambiguity and improving the interoperabil...
S. Krovvidi, Finn Vos, Laurent D. Hasson et al.· AHFE International· 0 citations
VitaGraph is presented, a comprehensive multi-purpose biological knowledge graph built by integrating and refining multiple public datasets and enabling benchmarking of graph-based models and offering the opportunity to tackle tasks such as drug repurposing, PPI prediction, and side-effect prediction, among others.
Francesco Madeddu, Lucia Testa, Gianluca De Carlo et al.· Scientific Data· 0 citations
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