CellPhePy: A python implementation of the CellPhe toolkit for automated cell phenotyping from microscopy time‐lapse videos
Year: 2025
Type: article
Abstract: We previously developed the CellPhe toolkit, an open-source R package for automated cell phenotyping from ptychography time-lapse videos. To align with the growing adoption of python-based image analysis tools and to enhance interoperability with widely used software for cell segmentation and tracking, we developed a python implementation of CellPhe, named CellPhePy. CellPhePy preserves all of the core functionality of the original toolkit, including single-cell phenotypic feature extraction, time-series analysis, feature selection and cell type classification. In addition, CellPhePy introduces significant enhancements, such as an improved method for identifying features that differentiate cell populations and extended support for multiclass classification, broadening its analytical capabilities. Notably, the CellPhePy package supports CellPose segmentation and TrackMate tracking, meaning that a set of microscopy images are the only required input with segmentation, tracking and feature extraction fully automated for downstream analysis, without reliance on external applications. The workflow's increased flexibility and modularity make it adaptable to different imaging modalities and fully customisable to address specific research questions. CellPhePy can be installed via PyPi or GitHub, and we also provide a CellPhePy GUI to aid user accessibility.
Source: Journal of Microscopy
DOI: 10.1111/jmi.13416
Authors: Laura Wiggins, Stuart Lacy, Graeme Park, Joanne Marrison, Ben Powell, Beth Cimini, Peter O’Toole, Julie Wilson, William J. Brackenbury
Institutions: University of Sheffield, University of York, Broad Institute
Language: English
Subfield: Biophysics
Domain: Life Sciences
Open Access status: hybrid
Estimated APC paid: $4,760
Awards: G1901466302, G2650731538, Using machine learning to predict cell type and fate in heterogeneous populations, Targeting sodium signalling to combat the disease-driving effects of tumour hypoxia, CellPhe 2: Machine Learning-based Phenotyping To Predict Cell Fate In Heterogeneous Populations, Removing barriers to advanced imaging and machine learning-based analysis
OpenAlex ID: W4409823856
