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Read morePersonalized medicine seeks to provide patients with more personalized treatment options; however, determining the proper medication and its dose remains a challenging process. This research introduces an explainable framework for personalized medicine that employs patient-centric information to derive personalized drug and dose recommendations. This approach leverages RAG in conjunction with EHR data, machine learning models, and explainable AI methods to generate recommendations based on current and traceable medical evidence. Moreover, our framework uses the digital twin concept to create personalized patient representations and simulate possible outcomes of applying certain drugs and dosing options. In addition to generating the personalized drug recommendation, our framework also offers an explanation for why this drug and dose should be chosen. This approach is evaluated on the ADR-20K multicohort dataset comprising 20,030 de-identified patients belonging to Hypertension, Diabetes Mellitus, Oncology, and Renal Impairment cohorts. It found that this approach outperforms guideline-based approaches in terms of dose prediction, calibration, and adverse drug reaction discrimination.
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Explainable Generative AI, Personalized Medicine, Drug and Dosage Recommendation, Retrieval-Augmented Generation (RAG), Digital Twin.
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