BioinformaticsBioinformaticsPeer-reviewed journal article
Reverse-engineering flow-cytometry gating strategies for phenotypic labelling and high-performance cell sorting
Étienne BechtiD, Yannick SimoniiD, Elaine Coustan‐Smith, Maximilien EvrardiD, Yang ChengiD, Lai Guan NgiD, Dario CampanaiD, Evan William NewelliD
Abstract
MotivationRecent flow and mass cytometers generate 1,000,000 single cell datasets of dimensions 20 to 40. Many tools facilitate the discovery of new cell populations associated with diseases or physiology. These discoveries require the identification of new gating strategies, but gating strategies become exponentially harder to optimize when dimensionality increases. To facilitate this step we developed Hypergate, an algorithm which given a cell population of interest identifies a gating strategy optimized for high yield and purity.\n\nResultsHypergate achieves higher yield and purity than human experts, Support Vector Machines and Random-Forests on public datasets. We use it to revisit some established gating strategies for the identification of Innate lymphoid cells, which identifies concise and efficient strategies that allow gating these cells with fewer parameters but higher yield and purity than the current standards. For phenotypic description, Hypergates outputs are consistent with fields knowledge and sparser than those from a competing method.\n\nAvailability and ImplementationHypergate is implemented in R and available at http://github.com/ebecht/hypergate under an Open Source Initiative-compliant licence.
- Citations
- 37
- FWCI
- 1.24
- Field percentile
- top 21%
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