Cytometry Part A · 2012 · 68 citations · 24 references
ComputingCell BiologyComputer ScienceBiomedical ImagingComputer VisionMorphogenesisCell Shape ChangesCell TrackingCell-surface LabelingCellular ImagingImage SegmentationMedical Image AnalysisAccuracyAutomated Watershed SegmentationCell SegmentationMorphological Image SegmentationSegmentationTime-lapse ImagingTissue SegmentationWatershed Segmentation
To study the process of morphogenesis, one often needs to collect and segment time-lapse images of living tissues to accurately track changing cellular morphology. This task typically involves segmenting and tracking tens to hundreds of individual cells over hundreds of image frames, a scale that would certainly benefit from automated routines; however, any automated routine would need to reliably handle a large number of sporadic, and yet typical problems (e.g., illumination inconsistency, photobleaching, rapid cell motions, and drift of focus or of cells moving through the imaging plane). Here, we present a segmentation and cell tracking approach based on the premise that users know their data best-interpreting and using image features that are not accounted for in any a priori algorithm design. We have developed a program, SeedWater Segmenter, that combines a parameter-less and fast automated watershed algorithm with a suite of manual intervention tools that enables users with little to no specialized knowledge of image processing to efficiently segment images with near-perfect accuracy based on simple user interactions.
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Cell Flow Reorients the Axis of Planar Polarity in the Wing Epithelium of Drosophila
Benoît Aigouy, Reza Farhadifar, Douglas B. Staple et al. · Cell · 2010 · 759 citations · Full text
Life Sciences, Biology, Cell Biology +16