The Leading Source for Global News and Information Covering the Ecosystem of High Productivity Computing
August 27, 2008
Aug. 27 -- Extending more than 50 years of supercomputing leadership, the University of Illinois at Urbana-Champaign and its National Center for Supercomputing Applications (NCSA) announced today that they have finalized their contract with IBM to build the world's first sustained petascale computational system dedicated to open scientific research. This leadership-class project, called Blue Waters, is supported by a $208 million grant from the National Science Foundation and will come online in 2011.
"Blue Waters will be an unrivaled national asset that will have a powerful impact on both science and society," said Thom Dunning NCSA director and a professor of chemistry at Illinois. "Scientists around the country -- simulating new medicines or materials, the weather, disease outbreaks, or complex engineered systems like power plants and aircraft -- are poised to make discoveries that we can only begin to imagine."
The system will deliver sustained performance of more than one petaflop on many real-world scientific and engineering applications. A petaflop is computing parlance for 1 quadrillion calculations per second.
"Our community traditionally uses peak performance to measure the output of a system based on simple benchmarks. It's a measure that's never achieved in real life," Dunning said. "With Blue Waters, we're focused intently on sustained performance -- genuine performance on codes that scientists and engineers use every day instead of unattainable benchmark figures."
More than 200,000 processor cores will make that performance possible. They will be coupled to more than a petabyte of memory and more than 10 petabytes of disk storage. All of that memory and storage will be globally addressable, meaning that processors will be able to share data from a single pool exceptionally quickly.
"A system with a large amount of globally addressable memory might come in at two terabytes of memory. Blue Waters will have 500 times that. This configuration makes Blue Waters a unique resource for the most compute-, memory-, and data-intensive applications. Handling data in this way means a broad range of researchers can get all of their work done in one place and don't have to move among different machines with specialized architectures," said Rob Pennington, NCSA's deputy director.
This unprecedented machine will be the first of a powerful new system design from IBM, maker of nearly half of the world's 500 fastest computers. Known as PERCS (Productive, Easy-to-use, Reliable Computing System), the design required research and development in new chip technology, interconnect technology, operating systems, compiler, and programming environments. It will run a large and varied set of commercial and technical high-performance computing applications.
To create a broad range of achievements in science and engineering, Blue Waters will require an intense, years-long collaboration among Illinois, NCSA, IBM, and the dozens of universities, colleges, research laboratories, and institutes that have formed the Great Lakes Consortium for Petascale Computation. This partnership is dedicated to encouraging the widespread and effective use of petascale computing to advance scientific discovery and the state-of-the-art in engineering, to increasing regional and national competitiveness, and to training tomorrow's computational researchers and educators.
"Our relationship with Illinois, NCSA, and their partners throughout the country will help deliver an extraordinary new system," said Dave Turek, vice president of supercomputing at IBM. "The work to come on Blue Waters will usher in a new era in supercomputing, ultimately providing a powerful new platform for scientists, engineers, and commercial users."
Recognizing the promise of petascale computing, the state of Illinois and the University of Illinois have pledged additional support so that researchers can fully exploit Blue Waters' unique capabilities. This support will include construction of a facility to house the system and a new Center for Petascale Computing.
Page: 1 of 2(Digg, Technorati, more)
There was a new energy at this year's TeraGrid '09 conference thanks to an outstanding turnout for the student program. Thanks to support from the National Science Foundation, more than 100 high school, undergraduate and graduate students were able to participate in the conference.
Read More...
Paul Avery, a recognized leader in advanced grid and networking for science, delivered the first keynote address at the recent TeraGrid '09 conference in Arlington, Virginia. A professor of physics at the University of Florida, Avery is co-principal investigator and founding member of the Open Science Grid (OSG). Avery talked about the history of OSG, some of the projects that leverage its resources, and OSG's relationship with TeraGrid.
Read More...
Before he even took the podium, Ed Seidel was one of the buzz makers at the TeraGrid '09 conference. The day before his keynote, it was announced that he was stepping in as acting assistant director of the National Science Foundation's math and physical sciences directorate. For his talk at the conference, however, Seidel focused on the issues and efforts within his home at NSF, the Office of Cyberinfrastructure.
Read More...
Jul 09 | Engineer Live | The demand for computational tools to underpin the 3D seismic interpretation process has never been more apparent. Read more...
Jul 08 | EE Times | Unemployment for U.S. engineers has reached record levels, according to government figures. Read more...
Jul 08 | Network World | Global spending for 2009 projected to drop 6 percent, for a total of $3.2 trillion. Read more...
Jul 08 | Linux Magazine | Portability or efficiency? Neither is guaranteed when writing explicit parallel code. Read more...
Jul 07 | Ars Technica | Japanese company builds custom ASIC to accelerate real-time ray traced rendering for the auto industry. Read more...
Apr 14 | | Many HPC IT departments are feeling the rising pressure to deliver more capacity computing and performance while trying to reduce the total cost of ownership. This white paper discusses how an environmentally-friendly and open-standards HPC building block based computing system using flexible interconnect options helps address capacity computing needs.
Source: Addison Snell, GM/VP, Tabor Research; sponsored by Dell
Many organizations that could benefit from the use of HPC clusters find that it is complicated to get the systems up and running because of limited IT resources or the complexities of the clusters themselves. Learn how the Intel Cluster Ready program, for which Dell was an original partner, seeks to address this challenge for entry level and mid-range HPC users.
BlueArc's Titan architecture represents an evolutionary step in file servers by creating a hardware-based file system that can scale bandwidth, IOPS, and overall data capacity well beyond conventional software-based devices. With its ability to virtualize a massive storage pool of up to four usable petabytes of tiered storage, Titan can scale with growing data requirements, offering a competitive advantage for businesses, researchers, or other enterprises seeking to better manage data growth while still ensuring optimal performance.
Sun Studio Compilers and Tools and Sun HPC ClusterTools allow you to create high performance parallel applications for OpenSolaris, Solaris and Linux. Sun Studio Express 11/08 includes MPI performance analysis capabilities and full OpenMP 3.0 compiler support. Learn about all this and the latest in Sun HPC ClusterTools 8.1.