Datasets:
Tasks:
Image Segmentation
Modalities:
Image
Formats:
imagefolder
Languages:
English
Size:
< 1K
License:
| language: | |
| - en | |
| pretty_name: Retinal Vessel Segmentation from Holographic Doppler Imaging | |
| tags: | |
| - medical-imaging | |
| - holography | |
| - retina | |
| - vessel-segmentation | |
| - deep-learning | |
| - artery-vein-segmentation | |
| - doppler-imaging | |
| task_categories: | |
| - image-segmentation | |
| license: cc-by-nc-4.0 | |
| size_categories: | |
| - n<1K | |
| # Retinal Vessel Segmentation from Holographic Doppler Imaging | |
| This dataset provides paired images and segmentation masks for **retinal vessel segmentation** from **holographic Doppler imaging**. | |
| It is designed for research in **computational imaging**, **retinal blood flow analysis**, and **deep learning-based vessel segmentation**. | |
| --- | |
| ## Dataset Summary | |
| Holographic Doppler imaging enables quantitative blood flow mapping in the retina by analyzing temporal fluctuations in optical interferograms. | |
| This dataset includes **power Doppler images (M0)** and their corresponding **artery and vein segmentation masks**, representing the spatial distribution of retinal blood flow observed through laser Doppler holography. | |
| Temporal informations derived from the arterial signal, namely the correlation map and the diasys image, are also provided. | |
| See the article submitted to ISBI2026 (*linked soon*) for more details | |
| --- | |
| ## Data Description | |
| | Attribute | Description | | |
| |:-----------|:-------------| | |
| | **Imaging modality** | Holographic Laser Doppler imaging of the retina | | |
| | **Input type** | Power Doppler intensity images (M0), Correlation map, Diasys image | |
| | **Target type** | Artery and Vein masks : binary segmentation masks (vessels vs. background) | | |
| | **Classes** | 0: Background, 1: Vessel | | |
| | **File format** | PNG (8-bit grayscale) | | |
| | **Typical image size** | 1023 × 1023 pixels | | |
| | **Sampling** | Retinal field of view from high-speed interferometric acquisitions | | |
| | **Preprocessing** | Temporal SVD filtering, Fresnel reconstruction, power Doppler accumulation | | |
| --- | |
| ## Dataset Structure | |
| HoloDopplerSegISBI/\ | |
| ├── dataset.py\ | |
| ├── README.md\ | |
| ├── train/\ | |
| │ ├── measure/\ | |
| │ │ ├── M0.png\ | |
| │ │ ├── correlation.png\ | |
| │ │ ├── diasys.png\ | |
| │ │ ├── maskArtery.png\ | |
| │ │ └── maskVein.png\ | |
| │ └── ...\ | |
| └── test/\ | |
| ├── measure/\ | |
| └── ...\ | |
| Measures have the following form : *id*\_*eye*\_*\_number*, with: | |
| - *id* corresponding to a unique patient. | |
| - *eye* equals to 'R' or 'L', respectively for right eye or left eye | |
| - *number* indicating which measure of the same eye it is | |
| --- | |
| ## Dataset split | |
| The data were split into 121 training and 24 test samples, with no patient overlap between splits. | |
| The number of measures, detailed by eyes, are summarized in the metadata/train_patients.csv and metadata/test_patients.csv | |
| Due to the recent nature of this dataset, the number of measures vary per patients, ranging from 1 measure up to 14, causing potential bias. Still, using the given train/test split, our experiments showed that using all available data yielded the best performance. |