DARTS: an open-source Python pipeline for Ca2+ microdomain analysis in live cell imaging data

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DARTS: an open-source Python pipeline for Ca2+ microdomain analysis in live cell imaging data. / Woelk, Lena-Marie; Kovacevic, Dejan; Husseini, Hümeyra; Förster, Fritz; Gerlach, Fynn; Möckl, Franziska; Altfeld, Marcus; Guse, Andreas H; Diercks, Björn-Philipp; Werner, René.

In: FRONT IMMUNOL, Vol. 14, 11.01.2024, p. 1299435.

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@article{93f6899fb36f49179100ca1e968171bc,
title = "DARTS: an open-source Python pipeline for Ca2+ microdomain analysis in live cell imaging data",
abstract = "Ca2+ microdomains play a key role in intracellular signaling processes. For instance, they mediate the activation of T cells and, thus, the initial adaptive immune system. They are, however, also of utmost importance for activation of other cells, and a detailed understanding of the dynamics of these spatially localized Ca2+ signals is crucial for a better understanding of the underlying signaling processes. A typical approach to analyze Ca2+ microdomain dynamics is live cell fluorescence microscopy imaging. Experiments usually involve imaging a larger number of cells of different groups (for instance, wild type and knockout cells), followed by a time consuming image and data analysis. With DARTS, we present a modular Python pipeline for efficient Ca2+ microdomain analysis in live cell imaging data. DARTS (Deconvolution, Analysis, Registration, Tracking, and Shape normalization) provides state-of-the-art image postprocessing options like deep learning-based cell detection and tracking, spatio-temporal image deconvolution, and bleaching correction. An integrated automated Ca2+ microdomain detection offers direct access to global statistics like the number of microdomains for cell groups, corresponding signal intensity levels, and the temporal evolution of the measures. With a focus on bead stimulation experiments, DARTS provides a so-called dartboard projection analysis and visualization approach. A dartboard projection covers spatio-temporal normalization of the bead contact areas and cell shape normalization onto a circular template that enables aggregation of the spatiotemporal information of the microdomain detection results for the individual cells of the cell groups of interest. The dartboard visualization allows intuitive interpretation of the spatio-temporal microdomain dynamics at the group level. The application of DARTS is illustrated by three use cases in the context of the formation of initial Ca2+ microdomains after cell stimulation. DARTS is provided as an open-source solution and will be continuously extended upon the feedback of the community. Code available at: 10.5281/zenodo.10459243.",
keywords = "Animals, Boidae, Microscopy, Fluorescence, T-Lymphocytes/metabolism",
author = "Lena-Marie Woelk and Dejan Kovacevic and H{\"u}meyra Husseini and Fritz F{\"o}rster and Fynn Gerlach and Franziska M{\"o}ckl and Marcus Altfeld and Guse, {Andreas H} and Bj{\"o}rn-Philipp Diercks and Ren{\'e} Werner",
note = "Copyright {\textcopyright} 2024 Woelk, Kovacevic, Husseini, F{\"o}rster, Gerlach, M{\"o}ckl, Altfeld, Guse, Diercks and Werner.",
year = "2024",
month = jan,
day = "11",
doi = "10.3389/fimmu.2023.1299435",
language = "English",
volume = "14",
pages = "1299435",
journal = "FRONT IMMUNOL",
issn = "1664-3224",
publisher = "Lausanne : Frontiers Research Foundation",

}

RIS

TY - JOUR

T1 - DARTS: an open-source Python pipeline for Ca2+ microdomain analysis in live cell imaging data

AU - Woelk, Lena-Marie

AU - Kovacevic, Dejan

AU - Husseini, Hümeyra

AU - Förster, Fritz

AU - Gerlach, Fynn

AU - Möckl, Franziska

AU - Altfeld, Marcus

AU - Guse, Andreas H

AU - Diercks, Björn-Philipp

AU - Werner, René

N1 - Copyright © 2024 Woelk, Kovacevic, Husseini, Förster, Gerlach, Möckl, Altfeld, Guse, Diercks and Werner.

PY - 2024/1/11

Y1 - 2024/1/11

N2 - Ca2+ microdomains play a key role in intracellular signaling processes. For instance, they mediate the activation of T cells and, thus, the initial adaptive immune system. They are, however, also of utmost importance for activation of other cells, and a detailed understanding of the dynamics of these spatially localized Ca2+ signals is crucial for a better understanding of the underlying signaling processes. A typical approach to analyze Ca2+ microdomain dynamics is live cell fluorescence microscopy imaging. Experiments usually involve imaging a larger number of cells of different groups (for instance, wild type and knockout cells), followed by a time consuming image and data analysis. With DARTS, we present a modular Python pipeline for efficient Ca2+ microdomain analysis in live cell imaging data. DARTS (Deconvolution, Analysis, Registration, Tracking, and Shape normalization) provides state-of-the-art image postprocessing options like deep learning-based cell detection and tracking, spatio-temporal image deconvolution, and bleaching correction. An integrated automated Ca2+ microdomain detection offers direct access to global statistics like the number of microdomains for cell groups, corresponding signal intensity levels, and the temporal evolution of the measures. With a focus on bead stimulation experiments, DARTS provides a so-called dartboard projection analysis and visualization approach. A dartboard projection covers spatio-temporal normalization of the bead contact areas and cell shape normalization onto a circular template that enables aggregation of the spatiotemporal information of the microdomain detection results for the individual cells of the cell groups of interest. The dartboard visualization allows intuitive interpretation of the spatio-temporal microdomain dynamics at the group level. The application of DARTS is illustrated by three use cases in the context of the formation of initial Ca2+ microdomains after cell stimulation. DARTS is provided as an open-source solution and will be continuously extended upon the feedback of the community. Code available at: 10.5281/zenodo.10459243.

AB - Ca2+ microdomains play a key role in intracellular signaling processes. For instance, they mediate the activation of T cells and, thus, the initial adaptive immune system. They are, however, also of utmost importance for activation of other cells, and a detailed understanding of the dynamics of these spatially localized Ca2+ signals is crucial for a better understanding of the underlying signaling processes. A typical approach to analyze Ca2+ microdomain dynamics is live cell fluorescence microscopy imaging. Experiments usually involve imaging a larger number of cells of different groups (for instance, wild type and knockout cells), followed by a time consuming image and data analysis. With DARTS, we present a modular Python pipeline for efficient Ca2+ microdomain analysis in live cell imaging data. DARTS (Deconvolution, Analysis, Registration, Tracking, and Shape normalization) provides state-of-the-art image postprocessing options like deep learning-based cell detection and tracking, spatio-temporal image deconvolution, and bleaching correction. An integrated automated Ca2+ microdomain detection offers direct access to global statistics like the number of microdomains for cell groups, corresponding signal intensity levels, and the temporal evolution of the measures. With a focus on bead stimulation experiments, DARTS provides a so-called dartboard projection analysis and visualization approach. A dartboard projection covers spatio-temporal normalization of the bead contact areas and cell shape normalization onto a circular template that enables aggregation of the spatiotemporal information of the microdomain detection results for the individual cells of the cell groups of interest. The dartboard visualization allows intuitive interpretation of the spatio-temporal microdomain dynamics at the group level. The application of DARTS is illustrated by three use cases in the context of the formation of initial Ca2+ microdomains after cell stimulation. DARTS is provided as an open-source solution and will be continuously extended upon the feedback of the community. Code available at: 10.5281/zenodo.10459243.

KW - Animals

KW - Boidae

KW - Microscopy, Fluorescence

KW - T-Lymphocytes/metabolism

U2 - 10.3389/fimmu.2023.1299435

DO - 10.3389/fimmu.2023.1299435

M3 - SCORING: Journal article

C2 - 38274810

VL - 14

SP - 1299435

JO - FRONT IMMUNOL

JF - FRONT IMMUNOL

SN - 1664-3224

ER -