Our research focuses on the development of statistical, machine learning, and computational methods that bridge the genome and phenome through more accurate, efficient, and biologically interpretable analyses. We leverage genomics, phenomics, and other sources of omics data in various species to better predict desired traits and infer the underlying biological mechanisms. This includes
We are working on interesting projects! Click the dropdown menu to find more.
$$ Software\ Packages $$
<aside> 🧬 **JWAS**
</aside>
genotype = get_genotypes("genotypes.csv")
pedigree = get_pedigree("pedigree.csv")
model = build_model("y = intercept + ID + genotype")
set_random(model,"ID",pedigree)
out = runMCMC(model,phenotypes)
<aside> 🖥️ XSim
</aside>
#simulate sequence data and pedigree structures
build_genome(numChr,chrLength,nLoci,nQTL)
sires = sampleFounders(nfounders)
dams = sampleFounders(nfounders)
sires1,dams1,gen1 = sampleRan(popSize, ngen, sires, dams)
<aside> 🔑 LPChoose
</aside>
#Optimizing Sequencing Resources in Genotyped Populations
LPChoose("data.csv",ninds)
$$ Interactive\ Web\ Apps $$
<aside> <img src="https://img.icons8.com/ios/250/000000/linkedin.png" alt="https://img.icons8.com/ios/250/000000/linkedin.png" width="40px" /> **ShinyJWAS**
</aside>
<aside> 🍋 LMMonBoard
</aside>
<aside> <img 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width="40px" /> Diagnostic Imaging
</aside>