Cutting-edge HPC, Visualization, Data Analysis, and Data-Intensive Computing
Stampede is one of the most powerful and significant current supercomputers in the U.S. for open science research. Able to perform nearly 10 quadrillion operations per second, Stampede offers infinite opportunities for computational science and technology— ranging from highly parallel algorithms, high-throughput computing, scalable visualization, and next generation programming languages. This Dell PowerEdge cluster equipped with Intel Xeon Phi coprocessors pushes the envelope of computational capabilities, enabling breakthroughs never before imagined. Stampede is funded by the National Science Foundation (NSF) through award ACI-1134872. XSEDE is funded by the National Science Foundation (NSF) through award ACI-1053575.
Thank you to everyone who has helped make Stampede possible: National Science Foundation, The University of Texas at Austin, Dell Inc., Intel Corporation, Mellanox Technologies, Clemson University, Cornell University, The Ohio State University, The University of Texas at El Paso, Indiana University, The University of Colorado at Boulder, and the Institute for Computational Engineering and Sciences (also at The University of Texas at Austin).
|Operating System:||Linux (CentOS distribution)|
|Number of Nodes:||6,400|
|Number of Processing Cores:||522,080|
|Peak Performance:||2+ PF (compute cluster), 7+ PF (coprocessors)|
|Total Disk:|| 14PB (shared) |
2016 Stampede Upgrade
Stampede has been upgraded by adding additional compute nodes built around the second generation of the Intel Xeon Phi many-core, x86 architecture, known as Knight's Landing. The new Xeon Phi's function as the primary processors in the new system.
The upgrade ranked #116 on the June 2016 Top 500, and was the only #KNL system on the list.
- Over 500 additional compute nodes with second generation Intel Xeon Phi processors
- About 1.5 petaflops of additional performance
- New Intel OmniPath network fabric between the new nodes
- High speed MCDRAM memory on each node