SCGid
SCGid applies a consensus-based contig filtering strategy to improve genome prediction and assembly quality for single-cell genomics of uncultured eukaryotes affected by multiple displacement amplification coverage biases and contamination.
Key Features:
- Consensus-Based Filtering: Applies multiple contig-filtering methods in parallel to de novo assemblies, producing three intermediate drafts and deriving a final consensus.
- Improved Assembly Quality: Integrates multiple filtering strategies to enhance assembly continuity and fidelity and to better discriminate eukaryotic genomes from contamination and noise.
- Performance Superiority: Demonstrated to recapitulate published draft genomes more effectively than existing methods, reducing reliance on manual curation.
- Versatility with SCG Metagenomes: Targets uncultured eukaryotes within single-cell genomics metagenomes to separate target genomes from contaminants.
- Implementation: Implemented in Python and R.
Scientific Applications:
- Genome Assembly from Single Cells: Facilitates assembly and genome prediction from single-cell sequencing data generated via multiple displacement amplification for uncultured eukaryotes.
- Contamination Mitigation: Reduces contamination in assemblies derived from multiple displacement amplification through consensus-based filtering.
- Enhanced Metagenomic Analysis: Improves accuracy of genome predictions within metagenomes to support ecological and evolutionary studies of uncultured eukaryotic species.
Methodology:
Processes de novo assemblies through different filtering techniques concurrently to generate multiple intermediate drafts and synthesizes those drafts into a consensus final genome prediction.
Topics
Details
- License:
- GPL-3.0
- Programming Languages:
- R, Perl, Python
- Added:
- 1/14/2020
- Last Updated:
- 12/17/2020
Operations
Publications
Amses KR, Davis WJ, James TY. SCGid: a consensus approach to contig filtering and genome prediction from single-cell sequencing libraries of uncultured eukaryotes. Bioinformatics. 2019;36(7):1994-2000. doi:10.1093/bioinformatics/btz866. PMID:31764940. PMCID:PMC7141854.