3DNetMod
3DNetMod detects hierarchical chromatin domains from Hi-C data using graph theory–based network modularity optimization to identify genomic interaction structures.
Key Features:
- Graph-Based Domain Detection: Represents Hi-C interaction data as a graph of genomic loci and spatial contacts to analyze chromatin organization.
- Network Modularity Optimization: Applies modularity optimization to identify chromatin domains with enriched intra-domain interactions relative to inter-domain interactions.
- Hierarchical Domain Identification: Detects nested and partially overlapping chromatin domains including topologically associating domains (TADs), subTADs, and chromatin loops.
- Resolution Parameter Control: Uses a tunable resolution parameter to detect chromatin domains across multiple genomic length scales.
Scientific Applications:
- 3D Genome Architecture Analysis: Characterizes hierarchical chromatin organization and spatial genome structure using Hi-C interaction data.
- Gene Regulation Studies: Investigates relationships between chromatin domain organization and gene regulatory mechanisms.
- Developmental Genome Organization: Examines changes in chromatin domain architecture during cellular differentiation and development.
- Disease-Associated Chromatin Structure Research: Studies alterations in chromatin domain organization associated with genetic disorders and chromatin misregulation.
Methodology:
3DNetMod constructs a graph representation of Hi-C interaction data in which nodes represent genomic loci and edges represent spatial contacts, and applies network modularity optimization with a tunable resolution parameter to detect hierarchical chromatin domains.
Topics
Details
- Maturity:
- Emerging
- Cost:
- Free of charge
- Tool Type:
- command-line tool
- Programming Languages:
- Python
- Added:
- 5/30/2018
- Last Updated:
- 11/25/2024
Operations
Publications
Norton HK, Emerson DJ, Huang H, Kim J, Titus KR, Gu S, Bassett DS, Phillips-Cremins JE. Detecting hierarchical genome folding with network modularity. Nature Methods. 2018;15(2):119-122. doi:10.1038/nmeth.4560. PMID:29334377. PMCID:PMC6029251.