3D Cell Oversegmentation Correction via Geo-Wasserstein Divergence

Fuente: arXiv
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Main Authors: Chen, Peter, Chang, Bryan, Creasey, Olivia A, Sneddon, Julie Beth, Gartner, Zev J, Liu, Yining
Format: Preprint
Published: 2025
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author Chen, Peter
Chang, Bryan
Creasey, Olivia A
Sneddon, Julie Beth
Gartner, Zev J
Liu, Yining
author_facet Chen, Peter
Chang, Bryan
Creasey, Olivia A
Sneddon, Julie Beth
Gartner, Zev J
Liu, Yining
contents 3D cell segmentation methods are often hindered by \emph{oversegmentation}, where a single cell is incorrectly split into multiple fragments. This degrades the final segmentation quality and is notoriously difficult to resolve, as oversegmentation errors often resemble natural gaps between adjacent cells. Our work makes two key contributions. First, for 3D cell segmentation, we are the first work to formulate oversegmentation as a concrete problem and propose a geometric framework to identify and correct these errors. Our approach builds a pre-trained classifier using both 2D geometric and 3D topological features extracted from flawed 3D segmentation results. Second, we introduce a novel metric, Geo-Wasserstein divergence, to quantify changes in 2D geometries. This captures the evolving trends of cell mask shape in a geometry-aware manner. We validate our method through extensive experiments on in-domain plant datasets, including both synthesized and real oversegmented cases, as well as on out-of-domain animal datasets to demonstrate transfer learning performance. An ablation study further highlights the contribution of the Geo-Wasserstein divergence. A clear pipeline is provided for end-users to build pre-trained models to any labeled dataset.
format Preprint
id arxiv_https___arxiv_org_abs_2502_01890
institution arXiv
publishDate 2025
record_format arxiv
spellingShingle 3D Cell Oversegmentation Correction via Geo-Wasserstein Divergence
Chen, Peter
Chang, Bryan
Creasey, Olivia A
Sneddon, Julie Beth
Gartner, Zev J
Liu, Yining
Computer Vision and Pattern Recognition
Machine Learning
3D cell segmentation methods are often hindered by \emph{oversegmentation}, where a single cell is incorrectly split into multiple fragments. This degrades the final segmentation quality and is notoriously difficult to resolve, as oversegmentation errors often resemble natural gaps between adjacent cells. Our work makes two key contributions. First, for 3D cell segmentation, we are the first work to formulate oversegmentation as a concrete problem and propose a geometric framework to identify and correct these errors. Our approach builds a pre-trained classifier using both 2D geometric and 3D topological features extracted from flawed 3D segmentation results. Second, we introduce a novel metric, Geo-Wasserstein divergence, to quantify changes in 2D geometries. This captures the evolving trends of cell mask shape in a geometry-aware manner. We validate our method through extensive experiments on in-domain plant datasets, including both synthesized and real oversegmented cases, as well as on out-of-domain animal datasets to demonstrate transfer learning performance. An ablation study further highlights the contribution of the Geo-Wasserstein divergence. A clear pipeline is provided for end-users to build pre-trained models to any labeled dataset.
title 3D Cell Oversegmentation Correction via Geo-Wasserstein Divergence
topic Computer Vision and Pattern Recognition
Machine Learning
url https://arxiv.org/abs/2502.01890