๐ค AI Summary
To address the scarcity of non-English clinical NLP resources, this paper introduces DARTโthe first structured dataset of Italian pharmaceutical regulatory texts, covering key pharmacological information including indications, adverse reactions, and drugโdrug interactions (DDIs). Methodologically, DART is constructed via web crawling, semantic segmentation, and low-temperature large language model (LLM) decoding to generate high-quality clinical summaries; instruction tuning further enables DDI reasoning. Contributions include: (1) the first publicly available Italian-language structured corpus for pharmaceutical regulation; and (2) a few-shot fine-tuning framework that enhances LLM performance in clinical summarization and DDI inference under resource constraints. Experiments demonstrate that models trained on DART accurately identify potential DDIs and their clinical implications, significantly improving the feasibility and reliability of AI-assisted clinical decision support.
๐ Abstract
The extraction of pharmacological knowledge from regulatory documents has become a key focus in biomedical natural language processing, with applications ranging from adverse event monitoring to AI-assisted clinical decision support. However, research in this field has predominantly relied on English-language corpora such as DrugBank, leaving a significant gap in resources tailored to other healthcare systems. To address this limitation, we introduce DART (Drug Annotation from Regulatory Texts), the first structured corpus of Italian Summaries of Product Characteristics derived from the official repository of the Italian Medicines Agency (AIFA). The dataset was built through a reproducible pipeline encompassing web-scale document retrieval, semantic segmentation of regulatory sections, and clinical summarization using a few-shot-tuned large language model with low-temperature decoding. DART provides structured information on key pharmacological domains such as indications, adverse drug reactions, and drug-drug interactions. To validate its utility, we implemented an LLM-based drug interaction checker that leverages the dataset to infer clinically meaningful interactions. Experimental results show that instruction-tuned LLMs can accurately infer potential interactions and their clinical implications when grounded in the structured textual fields of DART. We publicly release our code on GitHub: https://github.com/PRAISELab-PicusLab/DART.