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Researchers Use 'Hole-y' Math, ML to Study Cellular Self-Assembly


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By investigating the topological "loops" created when cells cluster together, researchers can infer information about the physiology of those cells.

A Brown University research team is using topology to train computers to classify how human cells organize into tissue-like architectures.

Credit: Brown University

Brown University researchers demonstrated a machine learning method that measures the topological properties of cell clusters, which can accurately categorize clusters and deduce the motility and adhesion of constituent cells.

The algorithm harnesses a mathematical framework called persistent homology to analyze microscope images of cell assemblages, and examine the topological loops or holes around empty regions in order to determine which patterns are intrinsic to the image. The most persistent loops are stored as a simplified representation of the overall configuration; once trained on computer-simulated cells, the algorithm could correctly classify different spatial patterns based on the biochemical treatment the cells had received. The Brown team hopes the algorithm could find use in laboratory drug-testing experiments.

From News from Brown
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Abstracts Copyright © 2021 SmithBucklin, Washington, DC, USA


 

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