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Evaluates accuracy of LLMs interpreting handwritten medication lists, suggesting potential for digitization in healthcare.
Introduction Handwritten bedside medication lists remain common in healthcare, especially in low-resource countries, presenting challenges for digitization and automated safety checks. The introduction of large-language models may present an opportunity to facilitate digitization of handwritten medication lists. Objective This study evaluated the accuracy of three GPT-based language models in recognizing handwritten medication lists, presented in Dutch. Methods Thirty-three participants transcribed a list of 10 medications with dosage and administration instructions. These lists were processed by each model and scored for correct medication name, dosage, frequency, and route. The effect of writer characteristics on LLM performance was assessed using the Mann-Whitney U test (sex, handedness, ink colour) and Kruskal-Wallis H-test (handwriting style: cursive, print, mixed). Results GPT 4.1 achieved the highest accuracy, followed by GPT4o, both outperforming GPT4o-mini ( p < 0.001). Recognition strongly correlated with human legibility (ρ = 0.655; p < 0.001). Print handwriting and blue ink resulted in higher recognition than cursive or mixed styles and black ink. Complex dosing instructions were most error-prone. Conclusion GPT-based optical character recognition showed potential for scalable digitization of handwritten prescriptions, however, human oversight remains essential to ensure medication safety. Future research should validate performance in real-world, multilingual settings.
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Jacobs et al. (2026) studied this question.
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