BERMUDA
BERMUDA applies transfer learning and deep autoencoders to remove batch effects from single-cell RNA sequencing (scRNA-seq) data and preserve genuine transcriptional signals across multiple datasets.
Key Features:
- Transfer learning: Transfers information across batches to integrate multiple scRNA-seq datasets with diverse cell population compositions.
- Deep autoencoders: Uses deep autoencoder neural networks to capture complex patterns in high-dimensional scRNA-seq data and distinguish biological signals from batch effects.
- Batch effect correction: Aligns different batches to reduce technical confounding while retaining biological variability such as cell-type differences.
- Performance on benchmarks: Demonstrated superior performance in distinguishing cell types and reducing batch effects on simulated and real scRNA-seq datasets.
Scientific Applications:
- Cell lineage identification: Enhances identification and tracing of cell lineages by reducing technical variability in integrated scRNA-seq data.
- Transcriptional signal discovery: Improves detection of bona fide transcriptional signals and novel cellular subtypes across combined datasets.
Methodology:
BERMUDA employs transfer learning and deep autoencoders to remove batch effects by aligning different scRNA-seq batches and was evaluated on simulated and real scRNA-seq datasets.
Topics
Details
- License:
- MIT
- Programming Languages:
- R, Python
- Added:
- 11/14/2019
- Last Updated:
- 12/5/2020
Operations
Publications
Wang T, Johnson TS, Shao W, Lu Z, Helm BR, Zhang J, Huang K. BERMUDA: a novel deep transfer learning method for single-cell RNA sequencing batch correction reveals hidden high-resolution cellular subtypes. Genome Biology. 2019;20(1). doi:10.1186/s13059-019-1764-6. PMID:31405383. PMCID:PMC6691531.
PMID: 31405383
PMCID: PMC6691531
Funding: - National Cancer Institute Informatics Technology for Cancer Research: U01CA188547