SSBER

SSBER removes batch effects from single-cell RNA sequencing (scRNA-seq) data by incorporating biological prior knowledge to mitigate technical variation while preserving genuine biological signals.


Key Features:

  • Batch-effect correction: Performs batch-effect correction on scRNA-seq datasets to reduce technical discrepancies between batches.
  • Biological priors integration: Integrates biological prior knowledge to guide the correction process and avoid altering true biological variation.
  • Composition-aware handling: Effective when there is substantial variation in cell type composition across batches, reducing the risk of overcorrection.
  • Preservation of biological signals: Maintains genuine biological variation during the correction process.
  • Cross-batch cell type resolution: Handles datasets where cell type structures differ markedly between batches or where similar cell types appear across different batches.
  • High-dimensional data support: Designed to operate on high-dimensional scRNA-seq data.
  • Robust performance: Demonstrates improved performance compared to existing algorithms under challenging conditions described in the input.

Scientific Applications:

  • Multi-batch integration: Integration of scRNA-seq datasets generated across diverse laboratories and sequencing platforms.
  • Heterogeneous tissue analysis: Analysis of heterogeneous scRNA-seq datasets collected from various tissues.
  • Downstream analyses facilitation: Enables more reliable downstream analyses of scRNA-seq data by reducing technical artifacts.
  • Reproducibility and accuracy improvement: Improves the accuracy and reproducibility of single-cell transcriptome studies.

Methodology:

SSBER incorporates biological prior knowledge to guide batch-effect correction in high-dimensional scRNA-seq datasets.

Topics

Details

Tool Type:
library
Programming Languages:
R
Added:
12/6/2021
Last Updated:
12/6/2021

Operations

Publications

Zhang Y, Wang F. SSBER: removing batch effect for single-cell RNA sequencing data. BMC Bioinformatics. 2021;22(1). doi:10.1186/s12859-021-04165-w. PMID:33990189. PMCID:PMC8120905.

PMID: 33990189
PMCID: PMC8120905
Funding: - National Natural Science Foundation of China: 61472086

Links