Personalization of the Radiology Residency Training Process Using Deep Learning and Interactive Extraction of Diagnostic Error Patterns
Subject Areas : AI and RoboticsSeyed Ali Kianmehr 1 , Mahdi Hashemzadeh 2
1 - Azarbaijan Shahid Madani University
2 -
Keywords: Personalized education, Error prediction, False-negative errors, False-positive errors, Machine learning, Deep learning, Computer vision,
Abstract :
Radiological imaging is an essential diagnostic tool widely utilized by physicians for the diagnosis and monitoring of various medical conditions. Accurate interpretation of these images demands training of specialized residents and medical experts to ensure high diagnostic precision. This study presents an intelligent system that leverages machine learning to provide a personalized radiology residency training process through the interactive extraction of false-positive and false-negative diagnostic error patterns. The proposed approach is designed as an online personalized training platform that employs an iterative process to evaluate residents through adaptive tests generated by a question-selection algorithm based on each resident's performance, with the aim of extracting diagnostic error models of them independently. The proposed method employs a deep learning-based model to evaluate the difficulty level of educational radiographic images. Test questions for residents are then systematically designed to ensure an optimal distribution of disease classes and a diverse range of image difficulty levels. In subsequent tests, by analyzing each resident's mistakes in previous tests and finding their error patterns, the evaluation weight of each test image is determined according to each resident's mistakes in previous similar images. During this iterative process, each resident's training period is conducted taking into account their strengths and weaknesses in previous tests. Experimental results indicate significant improvements in diagnostic accuracy of residents across different disease classes and various difficulty levels, accompanied by remarkable reductions in false-positive and false-negative error rates.
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