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Detection of potential drug-drug interactions for risk of acute kidney injury: a population-based case-control study using interpretable machine-learning models

Affiliation
Division of Pharmacology ,Department of Biomedical Sciences ,Nihon University School of Medicine ,Itabashi-ku ,Tokyo ,Japan
Akimoto, Hayato;
Affiliation
Division of Pharmacology ,Department of Biomedical Sciences ,Nihon University School of Medicine ,Itabashi-ku ,Tokyo ,Japan
Hayakawa, Takashi;
Affiliation
Division of Pharmacology ,Department of Biomedical Sciences ,Nihon University School of Medicine ,Itabashi-ku ,Tokyo ,Japan
Nagashima, Takuya;
Affiliation
Division of Genomic Epidemiology and Clinical Trials ,Clinical Trials Research Center ,Nihon University School of Medicine ,Itabashi-ku ,Tokyo ,Japan
Minagawa, Kimino;
Affiliation
Division of Genomic Epidemiology and Clinical Trials ,Clinical Trials Research Center ,Nihon University School of Medicine ,Itabashi-ku ,Tokyo ,Japan
Takahashi, Yasuo;
Affiliation
Division of Pharmacology ,Department of Biomedical Sciences ,Nihon University School of Medicine ,Itabashi-ku ,Tokyo ,Japan
Asai, Satoshi

Background: Acute kidney injury (AKI), with an increase in serum creatinine, is a common adverse drug event. Although various clinical studies have investigated whether a combination of two nephrotoxic drugs has an increased risk of AKI using traditional statistical models such as multivariable logistic regression (MLR), the evaluation metrics have not been evaluated despite the fact that traditional statistical models may over-fit the data. The aim of the present study was to detect drug-drug interactions with an increased risk of AKI by interpreting machine-learning models to avoid overfitting. Methods: We developed six machine-learning models trained using electronic medical records: MLR, logistic least absolute shrinkage and selection operator regression (LLR), random forest, extreme gradient boosting (XGB) tree, and two support vector machine models (kernel = linear function and radial basis function). In order to detect drug-drug interactions, the XGB and LLR models that showed good predictive performance were interpreted by SHapley Additive exPlanations (SHAP) and relative excess risk due to interaction (RERI), respectively. Results: Among approximately 2.5 million patients, 65,667 patients were extracted from the electronic medical records, and assigned to case ( N = 5,319) and control ( N = 60,348) groups. In the XGB model, a combination of loop diuretic and histamine H 2 blocker [mean (|SHAP|) = 0.011] was identified as a relatively important risk factor for AKI. The combination of loop diuretic and H 2 blocker showed a significant synergistic interaction on an additive scale (RERI 1.289, 95% confidence interval 0.226–5.591) also in the LLR model. Conclusion: The present population-based case-control study using interpretable machine-learning models suggested that although the relative importance of the individual and combined effects of loop diuretics and H 2 blockers is lower than that of well-known risk factors such as older age and sex, concomitant use of a loop diuretic and histamine H 2 blocker is associated with increased risk of AKI.

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License Holder: Copyright © 2023 Akimoto, Hayakawa, Nagashima, Minagawa, Takahashi and Asai.

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