TheCellVision.org repository: expansion with high-content cell imaging projects on eukaryotic intracellular organization and DUB biology
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High-content cell imaging approaches enable the systematic characterization of cellular function through the acquisition of multimodal information from large cohorts of live single cells. Yet, due to their scale and complexity, data acquired via such approaches are often challenging to meaningfully share across laboratories and effectively use for independent studies. Since its inception, the main purpose of TheCellVision.org repository has been to fill this gap, providing the research community with access to large-scale, multimodal single-cell datasets, in a structured, intuitive, and user-friendly way. Here, we report on the third major update of TheCellVision.org , which involves the expansion of the repository with the addition of data from two single-cell phenomics projects; the Intracellular Organization Dynamics project, which quantitatively maps changes in the morphology of 21 major subcellular structures in live yeast cells elicited by the systematic inhibition of essential genes, and the DUB Biology project, which describes changes in the concentration and localization of the budding yeast proteome in mutants of key deubiquitination enzymes (DUBs). With these additions, the repository now hosts six complementary high-content imaging projects which collectively explore the dynamics of intracellular organization and the proteome during changes in cell state and in response to environmental and genetic perturbations.
ARTICLE SUMMARY
TheCellVision.org is a repository for visualizing and mining data from yeast high-content imaging projects in an intuitive way. We report the 3 rd major expansion of TheCellVision.org , which involves the addition of two new projects; the Intracellular organization dynamics project, which quantitatively describes morphological changes in intracellular organization upon systematic inhibition of essential genes and progression of cells towards death, and the DUB Biology project, which describes genome-scale changes in protein localization and concentration in key deubiquitylase mutants of budding yeast.