SurfDist: Interpretable Three-Dimensional Instance Segmentation Using Curved Surface Patches
Jackson Borchardt, Saul Kato

TL;DR
SurfDist is a novel neural network architecture for 3D instance segmentation that predicts smooth, parametric surface patches, enabling high-resolution, artifact-free, interpretable instance surface modeling, especially effective for blob-shaped biomedical data.
Contribution
SurfDist introduces a new 3D instance segmentation method that predicts closed surface patches, improving resolution independence and interpretability over existing models like StarDist-3D.
Findings
Outperforms StarDist-3D on synthetic and real datasets.
Produces high-resolution, artifact-free surface predictions.
Effective for blob-shaped biomedical imaging instances.
Abstract
We present SurfDist, a convolutional neural network architecture for three-dimensional volumetric instance segmentation. SurfDist enables prediction of instances represented as closed surfaces composed of smooth parametric surface patches, specifically bicubic B\'ezier triangles. SurfDist is a modification of the popular model architecture StarDist-3D which breaks StarDist-3D's coupling of instance parameterization dimension and instance voxel resolution, and it produces predictions which may be upsampled to arbitrarily high resolutions without introduction of voxelization artifacts. For datasets with blob-shaped instances, common in biomedical imaging, SurfDist can outperform StarDist-3D with more compact instance parameterizations. We detail SurfDist's technical implementation and show one synthetic and one real-world dataset for which it outperforms StarDist-3D. These results…
Peer Reviews
No public reviews on file for this paper yet. If you reviewed it on a platform where reviews are public (OpenReview, ICLR, NeurIPS, ICML), you can paste yours below so the community can read it here.
Videos
No videos yet. Explain this paper in a talk, walkthrough, or lecture? Add one.
Taxonomy
TopicsAI in cancer detection · Cell Image Analysis Techniques · Advanced Neural Network Applications
