MML
MML reconstructs genome-wide haplotype structure from pedigree and population high-density SNP data to support gene-disease association and population genetics analyses.
Key Features:
- Integration of Data Sources: Integrates pedigree data and broader population samples, including high-density SNP datasets, for joint haplotype inference.
- Recombination Event Detection: Detects recombination events from SNP data to delineate haplotype boundaries and inform linkage disequilibrium analysis.
- Maximum Likelihood Optimization: Applies maximum likelihood methods to estimate haplotype frequencies and optimize haplotype diversity within populations.
- Zero-Recombinant Haplotype Reconstruction: Reconstructs haplotypes under zero-recombination assumptions based on prior zero-recombinant algorithms.
Scientific Applications:
- Gene-disease association studies: Provides haplotype structure information that supports mapping and interpretation of disease-associated loci in human populations.
- Population genetics: Characterizes genome-wide haplotypic variation to study genetic variation and linkage disequilibrium across human populations.
- Personalized medicine: Informs interpretation of individual-level haplotypic variation relevant to personalized medicine analyses.
Methodology:
Jointly applies Mendelian inheritance constraints and local population structure analysis, uses maximum likelihood estimation, detects recombination events, reconstructs zero-recombinant haplotypes, and has been validated on real and simulated datasets.
Topics
Details
- Tool Type:
- command-line tool
- Operating Systems:
- Linux, Windows
- Programming Languages:
- C++
- Added:
- 8/3/2017
- Last Updated:
- 11/25/2024
Operations
Publications
LI X, CHEN Y, LI J. DETECTING GENOME-WIDE HAPLOTYPE POLYMORPHISM BY COMBINED USE OF MENDELIAN CONSTRAINTS AND LOCAL POPULATION STRUCTURE. Biocomputing 2010. 2009. doi:10.1142/9789814295291_0037. PMID:19908387. PMCID:PMC3326656.