Christos Mavridis

Mr. Christos Mavridis


Research Focus & Metrics

Academic Career Length

3Years (2024-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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22 February 2024 in Cardiovascular Engineering and Technology
Verified
Journal Article
Closed access
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CMChristos Mavridis
Christos Mavridis
TETheodore L. Economopoulos
Theodore L. Economopoulos
GBGeorgios Benetos
Georgios Benetos
George K. MatsopoulosGeorge K. Matsopoulos
George K. Matsopoulos

13 December 2024 in Electronics
Verified
Journal Article
Open access
PDF file
CMChristos Mavridis
Christos Mavridis
TVTheodoros Panagiotis Vagenas
Theodoros Panagiotis Vagenas
TETheodore L. Economopoulos
Theodore L. Economopoulos
Ioannis A. VezakisIoannis A. Vezakis
Ioannis A. Vezakis
OPOurania Petropoulou
Ourania Petropoulou
George K. MatsopoulosGeorge K. Matsopoulos
George K. Matsopoulos
Abdominal aortic aneurysm (AAA) is a complex vascular condition associated with high mortality rates. Accurate abdominal aorta segmentation is essential in medical imaging, facilitating diagnosis and treatment for a range of cardiovascular diseases. In this regard, deep learning-based automated segmentation has shown significant promise in the precise delineation of the aorta. However, comparisons across different models remain limited, with most studies performing algorithmic training and testing on the same dataset. Furthermore, due to the variability in AAA presentation, using healthy controls for deep learning AAA segmentation poses a significant challenge. This study provides a detailed comparative analysis of four deep learning architectures—UNet, SegResNet, UNet Transformers (UNETR), and Shifted-Windows UNet Transformers (SwinUNETR)—for full abdominal aorta segmentation. The models were evaluated both qualitatively and quantitatively using private and public 3D (Computed Tomography) CT datasets. Moreover, they were successful in attaining high performance in delineating AAA aorta, while being trained on healthy aortic imaging data. Our findings indicate that the UNet architecture achieved the highest segmentation accuracy among the models tested.