Nilufer Ertekin-Taner
Epistatic Interactions for Brain eGWAS in Alzheimer's Disease
(jpw)Nov 2013 - Mar 2015
2020
2018
2015
Mariet Allen and Curtis S. Younkin: Epistatic Interactions for Brain eGWAS in Alzheimer's Disease
Blue Waters Symposium 2014, May 15, 2014
Five fast facts you should know about Alzheimer’s research on the Blue Waters supercomputer
Apr 27, 2016
Mariet Allen is an assistant professor of neuroscience at Mayo Clinic in Florida, and is conducting ongoing research using the Blue Waters supercomputer at the National Center for Supercomputing Applications (NCSA) at the University of Illinois to understand the role that genetics plays in Alzheimer’s disease. Considering that the research is examining pairs of variants instead of individual variants, running these analyses are computationally intensive. Because of that, Allen collaborated with investigators at the University of Illinois at Urbana-Champaign, receiving support from NCSA and the Mayo Clinic in order to run the analysis that was not possible without a supercomputer. "It's not like the kind of analysis that can be done routinely, in most university institutions," Allen says. "That's where Blue Waters really came in and enabled us to do the analysis."
Sources:
Uncovering Alzheimer's complex genetic networks
Feb 3, 2015
The release of the film, "Still Alice," in September 2014 shone a much-needed light on Alzheimer's disease, a debilitating neurological disease that affects a growing number of Americans each year. ... "We re interested in studying the genetics of Alzheimer's disease," said Mariet Allen, a post-doctoral fellow at the Mayo Clinic in Florida. "Can we identify genetic risk factors and improve our understanding of the biological pathways and cellular mechanisms that can play a role in the disease process?" Allen is part of a team of researchers from the Mayo Clinic who are using Blue Waters, one of the most powerful supercomputers in the world, to decode the complicated language of genetic pathways in the brain. In doing so, they hope to provide insights into what genes and proteins are malfunctioning in the brain, causing amyloid beta plaques, tau protein tangles and brain atrophy due to neuronal cell loss--the telltale signs of the disease--and how these genes can be detected and addressed.
Sources: