Teaching

Computational Statistical Genetics L41 BIOL 590B

This course covers the theory and application of both classical and advanced algorithms for estimating parameters and testing genomic hypotheses connecting genotype to phenotype. Students learn the key methods by writing their own program to do (simplified) linkage analysis in pedigrees in SAS for a simulated dataset provided by the coursemaster. Topics covered in the course include Maximum Likelihood theory for pedigrees and unrelated individuals, Maximization routines such as Newton-Raphson and the E-M Algorithm, Path analysis, Variance components, Mixed model algorithms, the Elston-Stewart and Lander-Green Algorithms, Simulated Annealing and the Metropolis Hastings algorithm, Bayesian and MCMC methods, Hidden Markov Models, Coalescent Theory, Haplotyping Algorithms, Genetic Imputation Algorithms, Permutation/Randomization Tests, classification and Data Mining Algorithms, Population Stratification and Admixture Mapping Methods, Loss of Heterozygosity models, Gene Networks, Copy Number Variation methods, Multiple comparisons corrections and Power and Monte-carlo simulation experiments. Course not available to auditors. Prerequisite: M21-5483 Human Linkage & Association, M21-560 Biostatistics I, and M21-570 Biostatistics II or, with permission of the Course Master, the equivalents.

PRIDE

The primary objective of the Summer Institute in Genetic Epidemiology is to provide all-expense-paid training and mentoring in genetic epidemiology and risk factors to junior-level faculty and scientists that are under-represented in the biomedical sciences and/or with a disability, so that they can competently and effectively develop independent research programs on cutting edge Heart, Lung, Blood, and Sleep (HLBS) disorders. This initiative to bring under-represented faculty and scientists into research is important because of the major public health burden of these diseases, especially in minority populations.