Results demonstrate that InfoFlowEX equips LLMs with robust adaptability, achieving consistent gains over baselines with minimal task-specific customization, highlighting InfoFlowEX for real-world biomedical applications.
Abstract
Summary Biomedical information extraction (BIE) is fundamental for transforming unstructured biomedical text into structured, computable knowledge, yet the effectiveness of large language models (LLMs) remains limited by dataset heterogeneity and lack of unified benchmarks. We present InfoFlowEX, a unified framework for generalizable biomedical knowledge extraction with LLMs. InfoFlowEX incorporates an automated data integration pipeline using ontology-guided alignment to construct BIE-Corpus, a large-scale multi-domain benchmark unifying 40 public datasets for named entity recognition and relation extraction. We further introduce a task-conditioned schema instruction tuning strategy encoding 28 biomedical entity and relation types into a schema codebase, enabling LLMs to align heterogeneous annotations and generalize across settings. Finally, we evaluated InfoFlowEX in diverse applications, including evidence retrieval for question-answering, clinical diagnosis from electronic health records, and knowledge graph expansion. Results demonstrate that InfoFlowEX equips LLMs with robust adaptability, achieving consistent gains over baselines with minimal task-specific customization, highlighting InfoFlowEX for real-world biomedical applications.
A layered reliability framework is defined in which graph-based inference addresses knowledge incompleteness, retrieval-augmented prompt control mitigates instability, and ontology grounding reduces semantic ambiguity, providing a foundation for more reliable biomedical AI systems.
Biomedical named entity recognition (NER) and relation extraction (RE) remain challenging because biomedical texts contain ambiguous abbreviations, complex entity boundaries, domain-specific terminology, and implicit relations. This study proposes a prompt-enhanced and QLoRA-adapted large language model framework for b...
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.
Assessment of five small, open-source LLMs in identifying semantic relationships between biomedical concepts confirms that direct fine-tuning effectively exceeds the reasoning bottlenecks of smaller LLMs, providing an accurate, automated methodology for the construction and evolution of specialised biomedical ontologie...
Tanay Aggarwal, Angelo Salatino, Francesco Osborne et al.· arXiv.org· 0 citations
Motivation Pharmacovigilance relies on accurate extraction of structured biomedical entities and their semantic relationships from scientific literature. However, most biomedical information extraction systems address named entity recognition (NER) and relation extraction as separate tasks trained on corpus-specific ar...
OntologyAligner is presented, a three-stage framework that combines ontology-aligned retrieval, large language model candidate reranking, and selective hierarchy-guided refinement that offers a generalizable framework for accurate mapping of biomedical text to structured ontology concepts.
Jie Song, Zhi-Chuan Xu, Zi-Yue Lu et al.· 0 citations
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