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Owen, Robert; Nasir, Aishah; Amer, Mahetab H; Nie, Chenxue; Xue, Xuan; Burroughs, Laurence; Denning, Chris; Wildman, Ricky D; Khan, Faraz A; Alexander, Morgan R; Rose, Felicity R A J
Computer Vision for substrate detection in high‐throughput biomaterial screens using bright‐field microscopy Journal Article
In: Adv. Intell. Syst., 2024.
Abstract | Links | Altmetric | Tags: computer vision, microscopy
@article{Owen2024-gn,
title = {Computer Vision for substrate detection in high‐throughput biomaterial screens using bright‐field microscopy},
author = {Robert Owen and Aishah Nasir and Mahetab H Amer and Chenxue Nie and Xuan Xue and Laurence Burroughs and Chris Denning and Ricky D Wildman and Faraz A Khan and Morgan R Alexander and Felicity R A J Rose},
doi = {10.1002/aisy.202400573},
year = {2024},
date = {2024-08-01},
urldate = {2024-08-01},
journal = {Adv. Intell. Syst.},
publisher = {Wiley},
abstract = {High‐throughput screening (HTS) can be used when ab initio
information is unavailable for rational design of new materials,
generating data on properties such as chemistry and topography
that control cell behavior. Biomaterial screens are typically
fabricated as microarrays or ``chips,\'\' seeded with the cell
type of interest, then phenotyped using immunocytochemistry and
high‐content imaging, generating vast quantities of image data.
Typically, analysis is only performed on fluorescent cell images
as it is relatively simple to automate through intensity
thresholding of cellular features. Automated analysis of
bright‐field images is rarely performed as it presents an
automation challenge as segmentation thresholds that work in all
images cannot be defined. This limits the biological insight as
cell response cannot be correlated to specifics of the
biomaterial feature (e.g., shape, size) as these features are
not visible on fluorescence images. Computer Vision aims to
digitize tasks humans do by sight, such as identify objects by
their shape. Herein, two case studies demonstrate how
open‐source approaches, (region‐based convolutional neural
network and algorithmic [OpenCV]), can be integrated into
cell‐biomaterial HTS analysis to automate bright‐field
segmentation across thousands of images, allowing rapid, spatial
definition of biomaterial features during cell analysis for the
first time.},
keywords = {computer vision, microscopy},
pubstate = {published},
tppubtype = {article}
}
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