methylFlow
methylFlow reconstructs cell-specific DNA methylation patterns from high-throughput bisulfite-converted DNA sequencing data to characterize epigenetic heterogeneity in tumor samples.
Key Features:
- Reconstruction of Heterogeneous Methylation Patterns: Assembles cell-specific methylation patterns from high-throughput bisulfite-converted sequencing reads to resolve methylation heterogeneity in heterogeneous tumor samples, including colon cancer.
- Analysis of Clonal and Population Heterogeneity: Analyzes clonal and population-level heterogeneity across high-coverage sequencing data from multiple samples to elucidate relationships between clonal structure and population diversity in tumors.
- Network Flow Problem Solving: Formulates and solves specific classes of minimum cost network flow problems to enable efficient and accurate reconstruction of methylation patterns across cell populations.
Scientific Applications:
- Cancer Research: Identifies genomic regions with differential methylation between tumor and normal tissue, applied to the colon cancer epigenome to study how methylation aberrations contribute to gene expression heterogeneity and tumor development.
- Epigenetic Studies: Dissects population-level DNA methylation dynamics and heterogeneity across various cancer types to support broader epigenomic analyses.
Methodology:
Processes high-throughput bisulfite-converted DNA sequencing data and reconstructs cell-specific methylation patterns by solving specific classes of minimum cost network flow problems.
Topics
Details
- Tool Type:
- command-line tool
- Operating Systems:
- Linux
- Programming Languages:
- R, C++
- Added:
- 8/3/2017
- Last Updated:
- 11/25/2024
Operations
Data Inputs & Outputs
Methylation analysis
Inputs
Outputs
Publications
Dorri F, Mendelowitz L, Corrada Bravo H. methylFlow: cell-specific methylation pattern reconstruction from high-throughput bisulfite-converted DNA sequencing. Bioinformatics. 2016;32(11):1618-1624. doi:10.1093/bioinformatics/btw287. PMID:27246923. PMCID:PMC4892417.