Published on in Vol 23, No 4 (2021): April

Preprints (earlier versions) of this paper are available at https://preprints.jmir.org/preprint/24120, first published .
Real-Time Clinical Decision Support Based on Recurrent Neural Networks for In-Hospital Acute Kidney Injury: External Validation and Model Interpretation

Real-Time Clinical Decision Support Based on Recurrent Neural Networks for In-Hospital Acute Kidney Injury: External Validation and Model Interpretation

Real-Time Clinical Decision Support Based on Recurrent Neural Networks for In-Hospital Acute Kidney Injury: External Validation and Model Interpretation

Journals

  1. Bacchi S, Gilbert T, Gluck S, Cheng J, Tan Y, Chim I, Jannes J, Kleinig T, Koblar S. Daily estimates of individual discharge likelihood with deep learning natural language processing in general medicine: a prospective and external validation study. Internal and Emergency Medicine 2022;17(2):411 View
  2. Hu J, Kang X, Xu F, Huang K, Du B, Weng L. Dynamic prediction of life-threatening events for patients in intensive care unit. BMC Medical Informatics and Decision Making 2022;22(1) View
  3. Sheu R, Pardeshi M. A Survey on Medical Explainable AI (XAI): Recent Progress, Explainability Approach, Human Interaction and Scoring System. Sensors 2022;22(20):8068 View
  4. Yu X, Ji Y, Huang M, Feng Z. Machine learning for acute kidney injury: Changing the traditional disease prediction mode. Frontiers in Medicine 2023;10 View
  5. Luo X, Yan P, Zhang N, Luo B, Wang M, Deng Y, Wu T, Wu X, Liu Q, Wang H, Wang L, Kang Y, Duan S. Machine learning for early discrimination between transient and persistent acute kidney injury in critically ill patients with sepsis. Scientific Reports 2021;11(1) View
  6. Selby N, Pannu N. Opportunities in digital health and electronic health records for acute kidney injury care. Current Opinion in Critical Care 2022;28(6):605 View
  7. Zhang K, Hu B, Zhou F, Song Y, Zhao X, Huang X. Graph-based structural knowledge-aware network for diagnosis assistant. Mathematical Biosciences and Engineering 2022;19(10):10533 View
  8. Zhang X, Xue Y, Su X, Chen S, Liu K, Chen W, Liu M, Hu Y. A Transfer Learning Approach to Correct the Temporal Performance Drift of Clinical Prediction Models: Retrospective Cohort Study. JMIR Medical Informatics 2022;10(11):e38053 View
  9. Yu X, Wu R, Ji Y, Feng Z. Bibliometric and visual analysis of machine learning-based research in acute kidney injury worldwide. Frontiers in Public Health 2023;11 View
  10. Naseri H, Waygood E, Wang B, Patterson Z. Interpretable Machine Learning Approach to Predicting Electric Vehicle Buying Decisions. Transportation Research Record: Journal of the Transportation Research Board 2023;2677(12):704 View
  11. Kim M, Sohn H, Choi S, Kim S. Requirements for Trustworthy Artificial Intelligence and its Application in Healthcare. Healthcare Informatics Research 2023;29(4):315 View
  12. Wainstein M, Flanagan E, Johnson D, Shrapnel S. Systematic review of externally validated machine learning models for predicting acute kidney injury in general hospital patients. Frontiers in Nephrology 2023;3 View
  13. Pungitore S, Subbian V. Assessment of Prediction Tasks and Time Window Selection in Temporal Modeling of Electronic Health Record Data: a Systematic Review. Journal of Healthcare Informatics Research 2023;7(3):313 View
  14. Shi J, Bendig D, Vollmar H, Rasche P. Mapping the Bibliometrics Landscape of AI in Medicine: Methodological Study. Journal of Medical Internet Research 2023;25:e45815 View
  15. Tang Z, Feng Y, Nie W, Li C. Xanthohumol attenuates renal ischemia/reperfusion injury by inhibiting ferroptosis. Experimental and Therapeutic Medicine 2023;26(6) View
  16. Yang M, Liu S, Hao T, Ma C, Chen H, Li Y, Wu C, Xie J, Qiu H, Li J, Yang Y, Liu C. Development and validation of a deep interpretable network for continuous acute kidney injury prediction in critically ill patients. Artificial Intelligence in Medicine 2024;149:102785 View
  17. Zhang L, Zhang J, Gao W, Bai F, Li N, Rashid Sheykhahmad F. A novel approach for automated diagnosis of kidney stones from CT images using optimized InceptionV4 based on combined dwarf mongoose optimizer. Biomedical Signal Processing and Control 2024;94:106356 View
  18. Zappalà S, Alfieri F, Ancona A, Taccone F, Maviglia R, Cauda V, Finazzi S, Dell’Anna A. Development and external validation of a machine learning model for the prediction of persistent acute kidney injury stage 3 in multi-centric, multi-national intensive care cohorts. Critical Care 2024;28(1) View
  19. Naseri H, Waygood E, Patterson Z, Wang B. Who is more likely to buy electric vehicles?. Transport Policy 2024;155:15 View
  20. Heo S, Kang E, Yu J, Kim H, Lee S, Kim K, Hwangbo Y, Park R, Shin H, Ryu K, Kim C, Jung H, Chegal Y, Lee J, Park Y. Time Series AI Model for Acute Kidney Injury Detection Based on a Multicenter Distributed Research Network: Development and Verification Study. JMIR Medical Informatics 2024;12:e47693 View
  21. Ouanes K, Farhah N. Effectiveness of Artificial Intelligence (AI) in Clinical Decision Support Systems and Care Delivery. Journal of Medical Systems 2024;48(1) View
  22. Caterson J, Lewin A, Williamson E. The application of explainable artificial intelligence (XAI) in electronic health record research: A scoping review. DIGITAL HEALTH 2024;10 View
  23. Jeong I, Cho N, Ahn S, Lee H, Gil H. Machine learning approaches toward an understanding of acute kidney injury: current trends and future directions. The Korean Journal of Internal Medicine 2024;39(6):882 View

Books/Policy Documents

  1. Petch J, Tabja Bortesi J, Nelson W, Di S, Mamdani M. Artificial Intelligence for Medicine. View