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  3. Transformer-based spatial-temporal detection of apoptotic cell death in live-cell imaging.

Transformer-based spatial-temporal detection of apoptotic cell death in live-cell imaging.

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DOI
10.48350/194469
Publisher DOI
10.7554/eLife.90502
PubMed ID
38497754
Abstract
Intravital microscopy has revolutionized live-cell imaging by allowing the study of spatial-temporal cell dynamics in living animals. However, the complexity of the data generated by this technology has limited the development of effective computational tools to identify and quantify cell processes. Amongst them, apoptosis is a crucial form of regulated cell death involved in tissue homeostasis and host defense. Live-cell imaging enabled the study of apoptosis at the cellular level, enhancing our understanding of its spatial-temporal regulation. However, at present, no computational method can deliver robust detection of apoptosis in microscopy timelapses. To overcome this limitation, we developed ADeS, a deep learning-based apoptosis detection system that employs the principle of activity recognition. We trained ADeS on extensive datasets containing more than 10,000 apoptotic instances collected both in vitro and in vivo, achieving a classification accuracy above 98% and outperforming state-of-the-art solutions. ADeS is the first method capable of detecting the location and duration of multiple apoptotic events in full microscopy timelapses, surpassing human performance in the same task. We demonstrated the effectiveness and robustness of ADeS across various imaging modalities, cell types, and staining techniques. Finally, we employed ADeS to quantify cell survival in vitro and tissue damage in mice, demonstrating its potential application in toxicity assays, treatment evaluation, and inflammatory dynamics. Our findings suggest that ADeS is a valuable tool for the accurate detection and quantification of apoptosis in live-cell imaging and, in particular, intravital microscopy data, providing insights into the complex spatial-temporal regulation of this process.
Date Issued
2024-03-18
Publication Type
Article
Subject(s)
500 Science > 570 Life sciences; biology
Subjects
cell culture computational biology immunology inflammation lymph node mouse spleen systems biology
Language(s)
en
Author(s)
Pulfer, Alain
Pizzagalli, Diego Ulisse
Gagliardi, Paolo Armando  
Institut für Zellbiologie (IZB)  
Hinderling, Lucien Simon  
Institut für Zellbiologie (IZB)  
Lopez, Paul
Zayats, Romaniya
Carrillo-Barberà, Pau
Antonello, Paola
Palomino-Segura, Miguel
Grädel, Benjamin Andreas  
Institut für Zellbiologie (IZB)  
Nicolai, Mariaclaudia
Giusti, Alessandro
Thelen, Marcus
Gambardella, Luca Maria
Murooka, Thomas T
Pertz, Olivier  
Institut für Zellbiologie (IZB)  
Krause, Rolf
Gonzalez, Santiago Fernandez
Additional Credits
Microscopy Imaging Center (MIC)  
Institut für Zellbiologie (IZB)  
Journal
eLife
Publisher
eLife Sciences Publications
ISSN
2050-084X
Access(Rights)
open.access
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