4.6 Article

Digital Cell Sorter (DCS): a cell type identification, anomaly detection, and Hopfield landscapes toolkit for single-cell transcriptomics

Journal

PEERJ
Volume 9, Issue -, Pages -

Publisher

PEERJ INC
DOI: 10.7717/peerj.10670

Keywords

Transcriptome analysis software; Single cell RNA sequencing; Hopfield classifier; Hopfield landscapes visualization; Automatic cell type identification; Consensus annotation; Anomaly detection

Funding

  1. National Institutes of Health [R01GM122085]

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This study introduces new methods for automatic cell type identification, cell anomaly quantification, and cell phenotypic landscape visualization. These methods are integrated into a software platform providing a comprehensive toolkit for scRNA-seq data analysis.
Motivation: Analysis of singe cell RNA sequencing (scRNA-seq) typically consists of different steps including quality control, batch correction, clustering, cell identification and characterization, and visualization. The amount of scRNA-seq data is growing extremely fast, and novel algorithmic approaches improving these steps are key to extract more biological information. Here, we introduce: (i) two methods for automatic cell type identification (i.e., without expert curator) based on a voting algorithm and a Hopfield classifier, (ii) a method for cell anomaly quantification based on isolation forest, and (iii) a tool for the visualization of cell phenotypic landscapes based on Hopfield energy-like functions. These new approaches are integrated in a software platform that includes many other state-of-the-art methodologies and provides a self-contained toolkit for scRNA-seq analysis. Results: We present a suite of software elements for the analysis of scRNA-seq data. This Python-based open source software, Digital Cell Sorter (DCS), consists in an extensive toolkit of methods for scRNA-seq analysis. We illustrate the capability of the software using data from large datasets of peripheral blood mononuclear cells (PBMC), as well as plasma cells of bone marrow samples from healthy donors and multiple myeloma patients. We test the novel algorithms by evaluating their ability to deconvolve cell mixtures and detect small numbers of anomalous cells in PBMC data.

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