Gordon, a unique data-intensive supercomputer using flash-based memory that will enter production in January at the San Diego Supercomputer Center (SDSC) at the University of California, San Diego, made its debut as the 48th fastest supercomputer in the world, according to the latest Top500 list.

SDSC researchers submitted an entry for Gordon using 218 teraflops per second (Tflop/s) and 12,608 cores – about 75 percent of the system.  Built by SDSC researchers and Appro, a leading developer of supercomputing solutions, Gordon, the next generation Appro Xtreme-X Supercomputer is currently undergoing acceptance testing and when made available to the research community on January 1, 2012, it will have 16,384 cores and achieve over 280 Tflop/s.

The latest Top500 rankings were announced during the SC11 (Supercomputing 2011) conference in Seattle this week. In related acceptance runs, Gordon was tested as to its ability to do I/O (input/output) operations, and achieved an unprecedented 35 million IOPS (input/output operations per second), making it the most powerful supercomputer ever commissioned by the National Science Foundation (NSF) for doing IO.

IOPS is an important measure for data intensive computing since it indicates the ability of a storage system to perform I/O operations on small transfer sizes of randomly organized data – something prevalent in database and data mining applications.

Gordon’s Top500 result is notable in that the Tflop/s ranking was achieved using about half the number of cores compared to most other systems. That’s because Gordon is among the first systems – and the first one commissioned by the NSF – to use Intel Xeon processor E5 Family, which perform twice as many operations per clock (eight versus four) of any system currently in use.

“These are truly remarkable results not only for us, but for countless researchers who are moving along with us into an era of data-intensive computing, where supercomputers using innovative new architectures will become a vital tool for them in accelerating new discoveries across a wide range of disciplines,” said Michael Norman, director of SDSC and a co-principal investigator of the Gordon project, the result of a five-year, $20 million NSF award.

“Taken together, these two results mean that Gordon will be the defacto leader in NSF systems in terms of ‘big data’ analysis computing,” said Allan Snavely, SDSC’s associate director and a co-PI for the Gordon system. “Gordon was designed from the outset to be a balanced system between compute and I/O to take on some of the most data-intensive challenges in the real world, not just to score well in terms of FLOPS.”

Gordon is the first high-performance supercomputer to use large amounts of flash-based SSD (solid state drive) memory – think of it as the world’s largest thumb drive. Flash memory is more common in smaller devices such as mobile phones and laptop computers, but unique for supercomputers, which generally use slower spinning disk technology.  Gordon uses 1,024 of Intel’s latest high endurance SSD’s, providing the significantly higher performance and endurance required for data intensive applications.

“Gordon, the Appro Xtreme-X Supercomputer, rises to the challenge of the San Diego Supercomputer Center’s computational demands with delivery of a data-intensive computing solution that blends cutting-edge for compute, network, and storage,” said Steve Lyness, vice president of Appro HPC Solutions Group. “The Appro Xtreme-X system based on the Future Intel Xeon processor E5 Family and the new Intel SSD 710 Series will maximize I/O capabilities and flash memory support to analyze large data sets used by SDSC to answer modern science’s critical problems.”

Gordon is capable of handling massive data bases while providing up to 100 times faster speeds when compared to hard drive disk systems for some queries. With almost 5 TB (terabytes) of high-performance flash memory in each I/O node, Gordon will provide a new level of performance and capacity for solving the most challenging data-intensive challenges, such as large graph problems, data mining operations, de novo genome assembly, database applications, and quantum chemistry. Gordon’s unique architecture includes:

• 1,024 dual-socket compute nodes, each with 2 8-core Intel Xeon E5 Family processors, and 64 GB (gigabyte) DDR3 1333 memory 
• Over 300 trillion bytes of high-performance Intel SSD 710 Series,  flash memory solid state drives via 64 dual-socket Intel Xeon processor 5600 Series I/O nodes 
• Large memory supernodes capable of presenting more than 2 TB of cache coherent memory using ScaleMP’s vSMP Foundation software
• 3D torus interconnect: Coupled with the dual rail QDR network to provide a cost-effective, power efficient, and fault-tolerant interconnect
• High-performance parallel file system with over 4 PB (petabytes) of capacity, and sustained rates of 100 GB/s (gigabytes per second)