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Assessing Multimodal AI for Visual Information Extraction of Pharmacology
Israel O Dilan-Pantojas1, Phu T Duong1, Kevin Lopes2
1Department of Biomedical Informatics, University of Pittsburgh, Pittsburgh, PA, USA.
Summary
Natural product-drug interactions pose risks. Multimodal AI models show promise for extracting safety data from pharmacology literature, improving natural product pharmacovigilance.
Area of Science:
- Pharmacology
- Computational Biology
- Artificial Intelligence
Background:
- Increasing use of herbal dietary supplements alongside prescription medications raises concerns about potential harmful interactions.
- Effective pharmacovigilance for natural products necessitates expert analysis of diverse evidence, including visual data from scientific literature.
- Previous research established the utility of a Natural Product Knowledge Graph (NP-KG) for natural product safety assessments.
Purpose of the Study:
- To evaluate the accuracy and resilience of multimodal AI models for computer-assisted data extraction from visual elements (tables and figures) in pharmacology literature.
- To assess the feasibility of scaling the NP-KG to encompass the thousands of natural products available by automating data extraction.
Main Methods:
- Evaluation of 3 open-weight and 7 closed-weight multimodal models.
- Performance assessment based on visual information extraction from select tables and images within pharmacology literature.
- Analysis of extraction accuracy using a modified relative error rate.
Main Results:
- The top-performing multimodal models achieved 90% accuracy in extracting tabular data.
- These models successfully extracted 45% of data from figures, with a modified relative error rate of 0.05.
- Image resolution and information density were identified as key limitations impacting extraction performance.
Conclusions:
- Multimodal AI models demonstrate significant potential for automating data extraction from visual content in pharmacology literature, crucial for natural product safety.
- Accurate data extraction from figures and tables is essential for scaling knowledge graphs and enhancing natural product pharmacovigilance.
- Further improvements in model performance are needed to overcome challenges related to image quality and data complexity.
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