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QuantifyPolarity, a new tool-kit for measuring planar polarized protein distributions and cell properties in developing tissues
Author(s) -
Su Tan,
Weijie Tan,
Katherine H. Fisher,
David Strutt
Publication year - 2021
Publication title -
development
Language(s) - English
Resource type - Journals
SCImago Journal Rank - 0.15
H-Index - 36
eISSN - 1477-9129
pISSN - 0950-1991
DOI - 10.1242/dev.198952
Subject(s) - planar , polarity (international relations) , cell polarity , biological system , polarization (electrochemistry) , principal component analysis , graphical user interface , interface (matter) , computer science , biology , geometry , artificial intelligence , pattern recognition (psychology) , cell , mathematics , computer graphics (images) , chemistry , parallel computing , genetics , bubble , maximum bubble pressure method , programming language
The coordination of cells or structures within the plane of a tissue is known as planar polarization. It is often governed by the asymmetric distribution of planar polarity proteins within cells. A number of quantitative methods have been developed to provide a readout of planar polarized protein distributions. However, previous planar polarity quantification methods can be affected by variation in cell geometry. Hence, we developed a novel planar polarity quantification method based on Principal Component Analysis (PCA) that is shape insensitive. Here, we compare this method with other state-of-the-art methods on simulated models and biological datasets. We found that the PCA method performs robustly in quantifying planar polarity independently of variation in cell geometry and other image conditions. We designed a user-friendly graphical user interface called QuantifyPolarity, equipped with three polarity methods for automated quantification of polarity. QuantifyPolarity also provides tools to quantify cell morphology and packing geometry, allowing the relationship of these characteristics to planar polarization to be investigated. This tool enables experimentalists with no prior computational expertise to perform high-throughput cell polarity and shape analysis automatically and efficiently.

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