Tracking Temporal Evolution of Topological Features in Image Data
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Abstract
Topological Data Analysis (TDA) can be used to detect and characterize holes in an image, such as zero-dimensional holes (connected components) or one-dimensional holes (loops). However, there is currently no widely accepted statistical framework for modeling spatiotemporal dependence in the evolution of topological features, such as holes, within a time series of images. We propose a hypothesis testing framework to identify statistically significant topological features of images in space and time, simultaneously. This addition of time may induce higher-dimensional topological features which can be used to establish temporal connections between the lower-dimensional features at each point in time. The temporal evolution of these lower-dimensional features is then represented on a zigzag persistence diagram, as a topological summary statistic focused on time dynamics. We demonstrate that the method effectively captures the emergence and progression of topological features in a study of a series of images of a wounded cell as it repairs. The proposed method outperforms a current approach in a simulation study that includes features of the wound healing process. Since, the wounded cell images exhibit nonlinear, dynamic, spatial, and temporal structures during single-cell repair, they provide a good application for this method.Keywords
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This publication has 25 references indexed in Scilit:
- Zigzag persistence for image processing: New software and applicationsPattern Recognition Letters, 2024
- Patterning of the cell cortex by Rho GTPasesNature Reviews Molecular Cell Biology, 2024
- Topological Data Analysis Approaches to Uncovering the Timing of Ring Structure Onset in Filamentous NetworksBulletin of Mathematical Biology, 2021
- Using persistent homology to quantify a diurnal cycle in hurricanesPattern Recognition Letters, 2020
- Zigzag persistent homology for processing neuronal imagesPattern Recognition Letters, 2015
- Sliding Windows and Persistence: An Application of Topological Methods to Signal AnalysisFoundations of Computational Mathematics, 2014
- Coordination of Rho Family GTPase Activities to Orchestrate Cytoskeleton Responses during Cell Wound RepairCurrent Biology, 2014
- Rho GTPase activity zones and transient contractile arraysBioEssays, 2006
- Concentric zones of active RhoA and Cdc42 around single cell woundsJournal of Cell Biology, 2005
- Contraction and polymerization cooperate to assemble and close actomyosin rings around Xenopus oocyte woundsJournal of Cell Biology, 2001