Table 2 Review of the papers that applied deep learning for kidney vessel segmentation.
References | Modality | Data source | No. of subj. | ML model | Input | DSC | Add’l perf. metrics |
|---|---|---|---|---|---|---|---|
Karpinski et al.60 | WSI | Publicly available | 35 | 2D UNet with Resnet34 backbone | 2D images | – | Acc: 0.893 |
He et al.61 | CT | Private | 170 | DPA-DenseBiasNet | 3D volumes | 0.861 | MCD:1.976 |
Taha et al.62 | CT | Private | 99 | Kid-Net (a 3D CNN) | 3D patches | – | F1 score: 0.72 (artery); 0.67 (vein) |
He at al.63 | CTA | Private | 122 | EnMcGAN | 3D patches | 0.89 ± 0.6 (artery); 0.77 ± 0.12 (vein) | – |
Zhang et al.64 | CT | Publicly available | 392 | DPA-DenseBiasNet | 2D images | 0.884 | – |
Xu et al.65 | Micro-CT | Private | 8 | CycleGAN | 3D patches | 0.768 ± 0.3 | Acc: 0.992 |
Li et al.66 | CT | Publicly available | 35 | DUP-Net | 3D patches | 0.883 | Precision:0.911; Recall:0.858 |