Key result
AI enhances diagnostic accuracy and automates image analysis in transcranial Doppler for cerebrovascular disease.
Why the study?
Transcranial Doppler and Transcranial Color-Coded Doppler rely on operator expertise and subjective interpretation, limiting their full potential, which artificial intelligence may address.
Does artificial intelligence improve the diagnostic accuracy and workflow of Transcranial Doppler and sonography in neurovascular conditions?
Does artificial intelligence improve the diagnostic accuracy and workflow of Transcranial Doppler and sonography in neurovascular conditions?
AI has the potential to reshape neurovascular diagnostic imaging by automating image acquisition and enhancing diagnostic accuracy in TCD and TCCD, though challenges in data standardization and generalizability remain.
Supports AI integration into TCD workflows for improved accuracy; extends validation of machine learning across cerebrovascular diagnostics.
Artificial intelligence (AI) is revolutionizing the field of medical imaging, offering unprecedented capabilities in data analysis, image interpretation, and decision support. Transcranial Doppler (TCD) and Transcranial Color-Coded Doppler (TCCD) are widely used, non-invasive modalities for evaluating cerebral hemodynamics in acute and chronic conditions. Yet, their reliance on operator expertise and subjective interpretation limits their full potential. AI, particularly machine learning and deep learning algorithms, has emerged as a transformative tool to address these challenges by automating image acquisition, optimizing signal quality, and enhancing diagnostic accuracy. Key applications reviewed include the automated identification of cerebrovascular abnormalities such as vasospasm and embolus detection in TCD, AI-guided workflow optimization, and real-time feedback in general ultrasound imaging. Despite promising advances, significant challenges remain, including data standardization, algorithm interpretability, and the integration of these tools into clinical practice. Developing robust, generalizable AI models and integrating multimodal imaging data promise to enhance diagnostic and prognostic capabilities in TCD and ultrasound. By bridging the gap between technological innovation and clinical utility, AI has the potential to reshape the landscape of neurovascular and diagnostic imaging, driving advancements in personalized medicine and improving patient outcomes. This review highlights the critical role of interdisciplinary collaboration in achieving these goals, exploring the current applications and future directions of AI in TCD and TCCD imaging. This review included 41 studies on the application of artificial intelligence (AI) in neurosonology in the diagnosis and monitoring of vascular and parenchymal brain pathologies. Machine learning, deep learning, and convolutional neural network algorithms have been effectively utilized in the analysis of TCD and TCCD data for several conditions. Conversely, the application of artificial intelligence techniques in transcranial sonography for the assessment of parenchymal brain disorders, such as dementia and space-occupying lesions, remains largely unexplored. Nonetheless, this area holds significant potential for future research and clinical innovation.
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Miceli et al. (2025) conducted a review in Neurovascular and parenchymal brain pathologies (n=41). Artificial Intelligence (Machine Learning and Deep Learning) vs. Traditional operator interpretation was evaluated on Diagnostic accuracy and workflow optimization. Artificial intelligence algorithms, particularly machine learning and deep learning, effectively enhance diagnostic accuracy and automate image analysis in transcranial Doppler and sonography for cerebrovascular conditions.
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