reproduce

reproduce evaluates dimensionality reduction methods for single-cell RNA sequencing (scRNA-seq) to compare their effectiveness at preserving neighborhood structure, supporting cell clustering and lineage reconstruction, and assessing computational scalability.


Key Features:

  • Systematic benchmarking: Evaluates 18 dimensionality reduction techniques across multiple datasets to enable direct comparison of methods.
  • Dataset scope: Uses 30 publicly accessible scRNA-seq datasets encompassing a variety of sequencing technologies and sample sizes.
  • Neighborhood preservation: Assesses how well reduced representations recover features from the original expression matrix.
  • Cell clustering and lineage reconstruction: Measures accuracy and robustness of methods for clustering cells and reconstructing developmental lineages.
  • Computational scalability: Records and compares the computational cost associated with each dimensionality reduction method.

Scientific Applications:

  • Method selection for scRNA-seq: Guides selection of dimensionality reduction approaches tailored to specific scRNA-seq datasets and analysis goals.
  • Benchmarking comparative analyses: Provides quantitative comparisons of trade-offs between neighborhood preservation, downstream analysis performance, and computational cost.
  • Support for downstream inference: Informs choice of representations for downstream tasks such as cell clustering and lineage reconstruction.

Methodology:

Systematic evaluation of 18 dimensionality reduction techniques across 30 publicly accessible scRNA-seq datasets measuring neighborhood preservation, clustering and lineage reconstruction performance, and computational cost.

Topics

Details

Added:
1/14/2020
Last Updated:
1/15/2021

Operations

Publications

Sun S, Zhu J, Ma Y, Zhou X. Accuracy, robustness and scalability of dimensionality reduction methods for single-cell RNA-seq analysis. Genome Biology. 2019;20(1). doi:10.1186/s13059-019-1898-6. PMID:31823809. PMCID:PMC6902413.

PMID: 31823809
PMCID: PMC6902413
Funding: - the National Institutes of Health: R01GM126553, R01HD088558, R01HG009124, U01HL137182 - the National Science Foundation: DMS1712933 - the Chan Zuckerberg Initiative DAF: 2018-181314 - the National Natural Science Foundation of China: 61902319 - the Natural Science Foundation of Shaanxi Province: 2019JQ127