2023
DOI: 10.1088/1361-6463/acf324
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Label-free identification of cell death mechanism using scattering-based microscopy and deep learning

Somaiyeh Khoubafarin,
Ashish Kharel,
Saloni Malla
et al.

Abstract: The detection of cell death and identification of the mechanism underpins many of the biological and medical sciences. A scattering-based microscopy-based method is presented here for identifying, measuring, and quantifying cell death in breast cancer cells using a label-free approach. We identify apoptosis and necrosis pathways by analyzing the temporal changes in morphological features of the cells. Moreover, a neural network was trained to identify the cellular morphological changes and classify cell death … Show more

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(1 citation statement)
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“…LLMF has been used for various biological applications, including for imaging cells, tissues, and pathogens. Cell imaging is a cornerstone of biological and medical research, offering the real-time visualization of cellular processes like division, migration, and interaction to understand how cells function and respond to stimuli (e.g., drugs), as well as to diagnose diseases through the identification of morphological changes [58][59][60]. LLFM has been used to image different kinds of cells, such as the multicolor imaging of double-stained human breast cancer SK-BR-3, revealing detailed cellular structures such as membranes and nuclei [51].…”
Section: Biological Application Of Llfmmentioning
confidence: 99%
“…LLMF has been used for various biological applications, including for imaging cells, tissues, and pathogens. Cell imaging is a cornerstone of biological and medical research, offering the real-time visualization of cellular processes like division, migration, and interaction to understand how cells function and respond to stimuli (e.g., drugs), as well as to diagnose diseases through the identification of morphological changes [58][59][60]. LLFM has been used to image different kinds of cells, such as the multicolor imaging of double-stained human breast cancer SK-BR-3, revealing detailed cellular structures such as membranes and nuclei [51].…”
Section: Biological Application Of Llfmmentioning
confidence: 99%