Fully Unsupervised Deep Spectral Clustering for Retinal Vessel Segmentation

Blood vessel segmentation plays a crucial role in the diagnosis and treatment of eye diseases. Fully supervised and semi-supervised deep learning-based methods require large, labeled datasets for their training. We propose a novel, fully unsupervised deep learning segmentation framework that implements the spectral clustering algorithm to address this issue. A deep neural network is used to learn the continuous Laplace-Beltrami partial differential operator of the images and solve its eigen decomposition in an end-to-end manner with a tai-lored loss function. The learned eigen decomposition spans the image space and is specifically tuned to the input image. Pixels are mapped to this space, and a k-means clustering algorithm produces the final segmentation results. We validated our method on the publicly available DRIVE and STARE reti-nal vessel datasets, demonstrating qualitative and quantitative results. Our approach outperforms other fully unsupervised methods for this task.

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Publication Details

Published
2025-04-14
DOI
https://doi.org/10.1109/isbi60581.2025.10981224
Primary Topic
Retinal Imaging and Analysis
Type
article
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article

Fully Unsupervised Deep Spectral Clustering for Retinal Vessel Segmentation

Nir Sochen, Benny Kupfer, Leah Bar
Retinal Imaging and Analysis
article

Fully Unsupervised Deep Spectral Clustering for Retinal Vessel Segmentation

Nir Sochen, Benny Kupfer, Leah Bar
article en

Abstract

Blood vessel segmentation plays a crucial role in the diagnosis and treatment of eye diseases. Fully supervised and semi-supervised deep learning-based methods require large, labeled datasets for their training. We propose a novel, fully unsupervised deep learning segmentation framework that implements the spectral clustering algorithm to address this issue. A deep neural network is used to learn the continuous Laplace-Beltrami partial differential operator of the images and solve its eigen decomposition in an end-to-end manner with a tai-lored loss function. The learned eigen decomposition spans the image space and is specifically tuned to the input image. Pixels are mapped to this space, and a k-means clustering algorithm produces the final segmentation results. We validated our method on the publicly available DRIVE and STARE reti-nal vessel datasets, demonstrating qualitative and quantitative results. Our approach outperforms other fully unsupervised methods for this task.

Tel Aviv University (IL)
Openalex Percentile: Top 85%
Retinal Imaging and Analysis
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