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ShapeSpaceExplorer: Analysis of morphological transitions in migrating cells using similarity-based shape space
Samuel D R Jefferyes1,2, Roswitha Gostner1, Laura Cooper1
1Centre for Mechanochemical Cell Biology and Biomedical Sciences, Warwick Medical School, University of Warwick, Coventry, United Kingdom.
Plos Computational Biology
|January 6, 2026
Summary
We developed ShapeSpaceExplorer, a software for analyzing 2D shape changes, particularly cell morphology during migration. This tool uses machine learning to map cell shape dynamics and predict migration behavior.
Area of Science:
- Computational biology
- Biophysics
- Image analysis
Background:
- Cell migration is crucial for physiological and pathological processes.
- Cell shape dynamics are emergent properties of the forces driving cell migration.
- Understanding cell shape-migration relationships is key to studying cellular behavior.
Purpose of the Study:
- To introduce ShapeSpaceExplorer, an interactive software for analyzing complex 2D shape series.
- To demonstrate the software's application in analyzing cell morphology changes during cell migration.
- To develop a machine learning approach for understanding cell shape dynamics and migration behavior.
Main Methods:
- Developed ShapeSpaceExplorer software for interactive extraction, visualization, and analysis of 2D shape series.
- Implemented a machine learning algorithm to analyze cell shape from time-lapse images and learn the intrinsic low-dimensional structure of cell shape space.
- Introduced a novel, rapid, and landmark-free shape difference measure for unbiased analysis of diverse cell morphologies.
Main Results:
- The software enables visualization of cell shape distribution differences after perturbation experiments.
- Quantitative relationships between cell shape and migration behavior were analyzed.
- The method successfully predicted cell turning based on dynamic cell shape information.
Conclusions:
- ShapeSpaceExplorer provides a powerful tool for visualizing and analyzing cell morphology changes.
- The machine learning approach effectively maps cell shape dynamics and predicts migration behavior.
- The software has broad applicability to various biological and inanimate object shape analyses.
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