A systematic review article examined the applications and challenges of artificial intelligence, machine learning, and deep learning algorithms in diagnosing thyroid diseases. The review focused on image classification, segmentation, and object detection within thyroid ultrasound, computed tomography, magnetic resonance imaging, and single photon emission computed tomography. No specific population, sample size, comparator, or primary outcome was reported.
The review revealed AI application across various imaging modalities through integration of cross-modal studies. It highlighted AI's potential value in feature extraction and risk stratification for thyroid disease diagnosis. No quantitative performance metrics, effect sizes, absolute numbers, or statistical measures were reported for any AI tools discussed.
Key limitations identified include data heterogeneity, where model performance declines due to data differences across institutions and equipment, and insufficient interpretability, with deep learning models often functioning as 'black boxes' that lack transparent decision-making rationale. No safety, adverse events, tolerability, or discontinuation data were reported. The review concludes that while AI demonstrates notable advantages and developmental potential in automated thyroid disease diagnosis, clinical translation requires addressing these significant challenges.
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Thyroid diseases, a prevalent class of endocrine system disorders, require diagnostic accuracy, which is essential for effective patient treatment and management. In recent years, artificial intelligence (AI) technology has made significant advancements in the medical field, providing new opportunities for the early diagnosis and precise treatment of thyroid diseases. This review discusses the latest applications of AI in the diagnosis of thyroid diseases, with a particular focus on the use of machine learning and deep learning (DL) algorithms in image classification, segmentation, and object detection within thyroid ultrasound, computed tomography, magnetic resonance imaging, and single photon emission computed tomography. Through the integration of cross-modal studies, this article reveals the application of AI across various imaging modalities, highlighting its potential value in feature extraction and risk stratification. Furthermore, we conduct an in-depth analysis of key challenges faced by AI applications, such as data heterogeneity (the decline in model performance due to data differences across institutions and equipment) and insufficient interpretability (DL models often function as “black boxes,” making it difficult to provide transparent decision-making rationale, which limits clinical trust and adoption). In summary, AI technology demonstrates notable advantages and developmental potential in the automated diagnosis of thyroid diseases; however, its clinical translation still requires addressing the aforementioned challenges. The resultant analysis demonstrates that AI holds promise in improving the diagnosis and treatment of thyroid diseases, offering new pathways for personalized medicine and better patient outcomes. Specifically, AI-driven tools can reduce diagnostic variability and errors in thyroid nodule assessment, enhance treatment precision with risk-stratified recommendations, and support more consistent, individualized clinical decisions.