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Figure 1.

Principle of the Nugget-Cut Scheme: A spherical template (left) is used as a basic structure for the segmentation graph (middle), which is created inside the image (right).

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Figure 2.

Segmentation results (red) in axial and sagittal reformatting (blue arrow: position of the seed point).

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Figure 3.

3D visualizations of segmentation results: segmentation nodes and triangulated segmentation result with surrounding structures (left and middle), and voxelized mask of the segmented prostate (right).

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Figure 4.

Segmentation results (red) for three different cases of proposed algorithm at the axial height of the user-defined seed point (blue).

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Figure 5.

Direct comparison of automatic (red) and manual (yellow) segmentation results for the same case: automatic segmentation result (left), manual segmentation (middle) and superimposed visualization of both segmentations (right).

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Figure 6.

Several axial slices with automatic segmentation results (red).

The fourth slice from the left contains also the user-defined seed point from which the segmentation graph has been created.

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Table 1.

Direct comparison of manual slice-by-slice and PCG-Cut segmentation results for ten prostate central glands (PCG) via the Dice Similarity Coefficient (DSC).

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Table 2.

Summary of results: min, max, mean and standard deviation for ten prostate central glands (PCG).

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