Hydrogen is a clean fuel that, when consumed, emits only water and oxygen making it a potentially promising part of our clean energy future. Researchers will use the Jaguar supercomputer to better understand how hydrogen and hydrogen compounds could be used as a practical fuel for producing power and heat.
Simulating Blood Clots in the Brain to Prevent Aneurysms
Principal Investigator: George Karniadakis, Brown University
Researchers will use the Intrepid supercomputer to conduct multi-scale simulations for modeling blood flow in human brain blood vessels to better predict and understand the rupture of aneurysms, sickle cell anemia and cerebral malaria.
Simulating Large Regional Earthquakes
Principal Investigator: Thomas H. Jordan, University of Southern California
The research team will utilize the Intrepid supercomputer to analyze earthquake-wave-simulations of large-scenario (Mw7.0+) earthquakes at frequencies above 1Hz on a regional scale. Using a realistic 3-D structural model of Southern California, these simulations will help geoscientists better understand the characteristics of large-magnitude events in this region, including the duration and distribution of strong ground motions at different frequencies to enable structural engineers to develop buildings that can withstand such frequencies.
Modeling Nuclear Reactors for Electrical Power
Principal Investigator: Thomas Evans, Oak Ridge National Laboratory
Utilizing the power of the Jaguar supercomputer, the research team will study the power distribution in a boiling water reactor, a type of nuclear reactor used for the generation of electrical power. By using novel computational tools researchers will focus on improving performance of both current and next-generation reactors potentially saving millions of dollars, through increased power efficiency and a reduction in fuel failures.
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DOE/Argonne National Laboratory