Key result
Deep learning model outperforms junior and medium-level radiologists in CEUS IPN classification with ~82% accuracy.
Why the study?
Assessing intraplaque neovascularization in carotid plaque using contrast-enhanced ultrasound is a valuable measure of plaque vulnerability but typically requires experienced radiologists.
Does a deep learning-based multi-task model improve the segmentation and IPN grade classification of carotid plaque on CEUS images and videos compared to radiologists?
Does a deep learning-based multi-task model improve the segmentation and IPN grade classification of carotid plaque on CEUS images and videos compared to radiologists?
A deep learning multi-task model provides accurate and objective segmentation and IPN grading of carotid plaques on CEUS images and videos, outperforming junior and medium-level radiologists.
May aid objective IPN assessment on CEUS; leaves open prospective validation before clinical use.
Intraplaque neovascularization (IPN) within carotid plaque is a crucial indicator of plaque vulnerability. Contrast-enhanced ultrasound (CEUS) is a valuable tool for assessing IPN by evaluating the location and quantity of microbubbles within the carotid plaque. However, this task is typically performed by experienced radiologists. Here we propose a deep learning-based multi-task model for the automatic segmentation and IPN grade classification of carotid plaque on CEUS images and videos. We also compare the performance of our model with that of radiologists. To simulate the clinical practice of radiologists, who often use CEUS videos with dynamic imaging to track microbubble flow and identify IPN, we develop a workflow for plaque vulnerability assessment using CEUS videos. Our multi-task model outperformed individually trained segmentation and classification models, achieving superior performance in IPN grade classification based on CEUS images. Specifically, our model achieved a high segmentation Dice coefficient of 84.64% and a high classification accuracy of 81.67% . Moreover, our model surpassed the performance of junior and medium-level radiologists, providing more accurate IPN grading of carotid plaque on CEUS images. For CEUS videos, our model achieved a classification accuracy of 80.00% in IPN grading. Overall, our multi-task model demonstrates great performance in the automatic, accurate, objective, and efficient IPN grading in both CEUS images and videos. This work holds significant promise for enhancing the clinical diagnosis of plaque vulnerability associated with IPN in CEUS evaluations.
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Hu et al. (2025) studied Carotid plaque with intraplaque neovascularization. Deep learning-based multi-task model vs. Junior and medium-level radiologists was evaluated on Intraplaque neovascularization grade classification accuracy on CEUS images. A deep learning-based multi-task model achieved a segmentation Dice coefficient of 84.64% and classification accuracy of 81.67% on CEUS images, outperforming junior and medium-level radiologists.
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