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Pittsburgh Supercomputing Center

Pittsburgh Supercomputing Center. Overview Pittsburgh Supercomputing Center. was established in 1986 through the collaborative efforts of Carnegie Mellon University and the University of Pittsburgh together with Westinghouse Electric Company.

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Pittsburgh Supercomputing Center

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  1. Pittsburgh Supercomputing Center

  2. OverviewPittsburgh Supercomputing Center • was established in 1986 through the collaborative efforts of Carnegie Mellon University and the University of Pittsburgh together with Westinghouse Electric Company. • receives support from several federal agencies, including NSF, NIH and DOE, the Commonwealth of Pennsylvania and private industry. • has particular strengths in user support and optimization, file systems, networking, and biomedical applications. • is a resource provider in the TeraGrid since 2002, when NSF expanded the initial Distributed Terascale Facility to integrate PSC's LeMieux, the TeraGrid’s first terascale system. • works with other TeraGrid partners to harness the full range of information technologies to enable discovery in U.S. science and engineering.

  3. PSC Research Highlights • Forecasting severe thunder storms PSC collaboration with NOAA and the Center for Analysis and Prediction of Storms (CAPS) in Norman, Oklahoma, in spring forecast experiments has proven the feasibility of numerical methods to forecast storms, such as supercells that spawn tornados, with significantly more detail and advance notice than current NWS operational technology. • Black holes in cosmic evolution Simulations led by Tiziana DiMatteo of Carnegie Mellon University included black holes for the first time in large-scale simulations of cosmic evolution. This work, featured on NOVA and the National Geographic channel, provided new understanding of how black holes regulate the growth of galaxies. • Understanding cellular membrane curvature • The ability of cellular membranes to curve is essential to life-sustaining processes such as endocytosis. With large-scale simulations, University of Utah chemist Gregory Voth and his PSC colleague Phil Blood showed previously unknown details of how a banana-shaped protein, called the BAR domain, induces cellular curvature.

  4. Other PSC Highlights • A national leader in computational approaches in the life sciences Through PSC’s National Resource for Biomedical Supercomputing (NRBSC), supported by NIH, PSC carries out an extensive program of biomedical training, dissemination and research, including structural biology, realistic cellular modeling and volumetric visualization. • K-20 Science Outreach NRBSC has developed innovative Computational Modules in Science Teaching (CMIST) for high school and undergraduate biology, chemistry, physics, computer science and math. PSC’s WiiMD learning software combines Nintendo’s popular video console with “molecular dynamics” to create a fascinating game of science learning. • Meeting the challenges of clean energy Through partnership with the National Energy Technology Laboratory in Pittsburgh and Morgantown, WV, PSC helps to advance research on clean energy, including development of commercial-scale coal-gasification implemented in a Florida power plant that will be the cleanest, most efficient coal-fired plant in the world when it comes on-line in 2010.

  5. TeraGrid Systems at PSC • BigBen Cray XT3 comprising 2,068 compute nodes (4,136 cores) linked by a custom-designed interconnect. Twenty-two dedicated IO processors are also connected. Each compute node has two 2.6 GHz AMD Opteron cores sharing two gigabytes of memory and the high-speed network connection. • Pople • Silicon Graphics Altix 4700, 768 processors, 1.5 terabytes, shared memory, 5.0 peak teraflops. Pople became a TeraGrid resource in July 2008.

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