Data-Driven
and Machine Learning-Based Framework for
Image-Guided Single-Cell Mass Spectrometry
Posted on 2023-01-25 - 13:51
Improved
throughput of analysis and lowered limits of
detection
have allowed single-cell chemical analysis to go beyond the detection
of a few molecules in such volume-limited samples, enabling researchers
to characterize different functional states of individual cells. Image-guided
single-cell mass spectrometry leverages optical and fluorescence microscopy
in the high-throughput analysis of cellular and subcellular targets.
In this work, we propose DATSIGMA (DAta-driven Tools for Single-cell analysis using Image-Guided MAss spectrometry), a workflow
based on data-driven and machine learning approaches for feature extraction
and enhanced interpretability of complex single-cell mass spectrometry
data. Here, we implemented our toolset with user-friendly programs
and tested it on multiple experimental data sets that cover a wide
range of biological applications, including classifying various brain
cell types. Because it is open-source, it offers a high level of customization
and can be easily adapted to other types of single-cell mass spectrometry
data.
CITE THIS COLLECTION
Xie, Yuxuan
Richard; Chari, Varsha K.; Castro, Daniel C.; Grant, Romans; Rubakhin, Stanislav S.; Sweedler, Jonathan V. (2023): Data-Driven
and Machine Learning-Based Framework for
Image-Guided Single-Cell Mass Spectrometry. ACS Publications. Collection. https://doi.org/10.1021/acs.jproteome.2c00714
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AUTHORS (6)
YX
Yuxuan
Richard Xie
VC
Varsha K. Chari
DC
Daniel C. Castro
RG
Romans Grant
SR
Stanislav S. Rubakhin
JS
Jonathan V. Sweedler
KEYWORDS
ss spectrometry ),mage -< bcell chemical analysiscell analysis usingg </ bda </ bmachine learning approaches</ bmachine learningthroughput analysisworkflow basedwide rangesubcellular targetslowered limitslimited samplesindividual cellsgo beyondfriendly programsfluorescence microscopyfeature extractionenhanced interpretabilityenabling researcherseasily adaptedbiological applicationsbased framework