OmniSegger: A time-lapse image analysis pipeline for bacterial cells

Time-lapse microscopy is a powerful tool to study the biology of bacterial cells. The development of pipelines that facilitate the automated analysis of these datasets is a long-standing goal of the field. In this paper, we describe the OmniSegger pipeline developed as an open-source, modular, and holistic suite of algorithms whose input is raw microscopy images and whose output is a wide range of quantitative cellular analyses, including dynamical cell cytometry data and cellular visualizations. The updated version described in this paper introduces two principal refinements: (i) robustness to cell morphologies and (ii) support for a range of common imaging modalities. To demonstrate robustness to cell morphology, we present an analysis of the proliferation dynamics of Escherchia coli treated with a drug that induces filamentation. To demonstrate extended support for new image modalities, we analyze cells imaged by five distinct modalities: phase-contrast, two brightfield modalities, and cytoplasmic and membrane fluorescence. Together, this pipeline should greatly increase the scope of tractable analyses for bacterial microscopists.

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Publication Details

Journal
PLoS Computational Biology
Published
2025-05-28
DOI
https://doi.org/10.1371/journal.pcbi.1013088
Citations
4
Primary Topic
Cell Image Analysis Techniques
Type
article
Field-Weighted Citation Impact
6.54

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article

OmniSegger: A time-lapse image analysis pipeline for bacterial cells

Kevin J. Cutler, Paul A. Wiggins, Teresa W. Lo, Han James Choi
4 citations
PLoS Computational Biology
Cell Image Analysis Techniques
6.54
article

OmniSegger: A time-lapse image analysis pipeline for bacterial cells

Kevin J. Cutler, Paul A. Wiggins, Teresa W. Lo, Han James Choi
article en
4 citations

Abstract

Time-lapse microscopy is a powerful tool to study the biology of bacterial cells. The development of pipelines that facilitate the automated analysis of these datasets is a long-standing goal of the field. In this paper, we describe the OmniSegger pipeline developed as an open-source, modular, and holistic suite of algorithms whose input is raw microscopy images and whose output is a wide range of quantitative cellular analyses, including dynamical cell cytometry data and cellular visualizations. The updated version described in this paper introduces two principal refinements: (i) robustness to cell morphologies and (ii) support for a range of common imaging modalities. To demonstrate robustness to cell morphology, we present an analysis of the proliferation dynamics of Escherchia coli treated with a drug that induces filamentation. To demonstrate extended support for new image modalities, we analyze cells imaged by five distinct modalities: phase-contrast, two brightfield modalities, and cytoplasmic and membrane fluorescence. Together, this pipeline should greatly increase the scope of tractable analyses for bacterial microscopists.

PLoS Computational BiologyVol. 21(5)
University of Washington (US)
National Science Foundation, Foundation for the National Institutes of Health
Openalex Percentile: Top 4%
Cell Image Analysis Techniques
6.54
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OmniSegger: A time-lapse image analysis pipeline for bacterial cells — Kevin J. Cutler, Paul A. Wiggins, et al. · PLoS Computational Biology (2025) | TGRS Research Map | TGRS