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GKE-TUNet: Geometry-Knowledge Embedded TransUNet Model for Retinal Vessel Segmentation Considering Anatomical
IEEE Journal of Biomedical and Health Informatics
|August 13, 2024
Summary
A new Geometry-Knowledge Embedded TransUNet (GKE-TUNet) model enhances automated retinal vessel segmentation by integrating anatomical topology. This improves detection of complex structures for better computer-aided diagnosis and screening.
Area of Science:
- Medical Imaging
- Computer Vision
- Artificial Intelligence
Background:
- Automated retinal vessel segmentation is vital for diagnosing eye conditions like retinopathy.
- Deep learning models struggle with intricate vascular structures and small vessels in dense retinal regions.
Purpose of the Study:
- To introduce a novel segmentation model, GKE-TUNet, that embeds retinal vessel anatomical topology.
- To improve the accuracy of automated retinal vessel segmentation, especially in challenging vascular patterns.
Main Methods:
- A skeleton extraction network pre-trains to capture vessel topology.
- A graph attention network (GAT) processes topological features within a TransUNet architecture.
- Graph features are fused with dense feature maps to enhance segmentation.
Main Results:
- The GKE-TUNet model demonstrated competitive performance on DRIVE, CHASE-DB1, and STARE datasets.
- The method effectively extracts complex intertwined structures and subtle small vessels.
- Integration of topological knowledge improved segmentation accuracy.
Conclusions:
- The GKE-TUNet model offers a robust approach for automated retinal vessel segmentation.
- Embedding explicit anatomical knowledge enhances deep learning model performance for medical imaging tasks.
- This method holds promise for advancing computer-aided diagnosis and retinopathy screening.

