Cray Inc., a subsidiary of Hewlett Packard Enterprise, is an American supercomputer manufacturer headquartered in Seattle, Washington.[2] It also manufactures systems for data storage and analytics.[6] Several Cray supercomputer systems are listed in the TOP500, which ranks the most powerful supercomputers in the world.[7]
Cray manufactures its products in part in Chippewa Falls, Wisconsin, where its founder, Seymour Cray, was born and raised. The company also has offices in Bloomington, Minnesota (which have been converted to Hewlett Packard Enterprise offices), and numerous other sales, service, engineering, and R&D locations around the world.[8][9]
In 1972, the company's predecessor, Cray Research, Inc. (CRI), was founded by computer designer Seymour Cray.[10]
In 1989, Seymour Cray formed Cray Computer Corporation (CCC), which went bankrupt in 1995.
In 2000, Cray Inc. was formed when Tera Computer Company purchased the Cray Research Inc. business from SGI and adopted the name of its acquisition.[11]
In 1960, he left the company, a few years after former ERA employees set up Control Data Corporation (CDC). He initially worked out of the CDC headquarters in Minneapolis, but grew upset by constant interruptions by managers. He eventually set up a lab in his hometown of Chippewa Falls, Wisconsin, about 85 miles to the east. Cray had a string of successes at CDC, including the CDC 6600 and CDC 7600.
Cray Research Inc. and Cray Computer Corporation: 1972–1996
Cray-2 supercomputer
When CDC ran into financial difficulties in the late 1960s, development funds for Cray's follow-on CDC 8600 became scarce. When he was told the project would have to be put "on hold" in 1972, Cray left to form his own company, Cray Research, Inc. Copying the previous arrangement, Cray kept the research and development facilities in Chippewa Falls, and put the business headquarters in Minneapolis. The company's first product, the Cray-1 supercomputer, was a major success because it was significantly faster than all other computers at the time. The first system was sold within a month for $8.8 million. Seymour Cray continued working, this time on the Cray-2, though it ended up being only marginally faster than the Cray X-MP, developed by another team at the company.
Cray soon left the CEO position to become an independent contractor. He started a new Very Large Scale Integration technology lab for the Cray-2 in Boulder, Colorado, Cray Laboratories, in 1979, which closed in 1982; undaunted, Cray later headed a similar spin-off in 1989, Cray Computer Corporation (CCC) in Colorado Springs, Colorado, where he worked on the Cray-3 project—the first attempt at major use of gallium arsenide (GaAs) semiconductors in computing. However, the changing political climate (collapse of the Warsaw Pact and the end of the Cold War) resulted in poor sales prospects. Ultimately, only one Cray-3 was delivered, and a number of follow-on designs were never completed. The company filed for bankruptcy in 1995. CCC's remains then became Cray's final corporation, SRC Computers, Inc.
Cray Research continued development along a separate line of computers, originally with lead designer Steve Chen and the Cray X-MP. After Chen's departure, the Cray Y-MP, Cray C90 and Cray T90 were developed on the original Cray-1 architecture but achieved much greater performance via multiple additional processors, faster clocks, and wider vector pipes. The uncertainty of the Cray-2 project gave rise to a number of Cray-object-code compatible "Crayette" firms: Scientific Computer Systems (SCS), American Supercomputer, Supertek, and perhaps one other firm. These firms did not intend to compete against Cray and therefore attempted less expensive, slower CMOS versions of the X-MP with the release of the COS operating system (SCS) and the CFT Fortran compiler; they also considered the Cray Time Sharing System operating system, developed at United States Department of Energy national laboratories (LANL/LLNL), before joining the broader trend toward adoption of Unixes. Today, Cray OS is a specialized version of SUSE Linux Enterprise Server.[13]
Cray T3E processor board
A series of massively parallel computers from Thinking Machines Corporation, Kendall Square Research, Intel, nCUBE, MasPar and Meiko Scientific took over the 1980s high performance market. At first, Cray Research denigrated such approaches by complaining that developing software to effectively use the machines was difficult – a true complaint in the era of the ILLIAC IV, but becoming less so each day. Cray eventually realized that the approach was likely the only way forward and started a five-year project to capture the lead in this area: the plan's result was the Digital Equipment CorporationAlpha-based Cray T3D and Cray T3E series, which left Cray as the only remaining supercomputer vendor in the market besides NEC's SX architecture by 2000.
Most sites with a Cray installation were considered members of the "exclusive club" of Cray operators. Cray computers were considered quite prestigious because Crays were extremely expensive machines, and the number of units sold was small compared to ordinary mainframes. This perception extended to countries as well: to boost the perception of exclusivity, Cray Research's marketing department had promotional neckties made with a mosaic of tiny national flags illustrating the "club of Cray-operating countries".[14]
New vendors introduced small supercomputers, known as minisupercomputers (as opposed to superminis) during the late 1980s and early 1990s, which out-competed low-end Cray machines in the market. The Convex Computer series, as well as a number of small-scale parallel machines from companies like Pyramid Technology and Alliant Computer Systems were particularly popular. One such vendor was Supertek, whose S-1 machine was an air-cooled CMOS implementation of the X-MP processor. Cray purchased Supertek in 1990 and sold the S-1 as the Cray XMS, but the machine proved problematic; meanwhile, the not-yet-completed S-2, a Y-MP clone, was later offered as the Cray Y-MP (later becoming the Cray EL90) which started to sell in reasonable numbers in 1991–92—to mostly smaller companies, notably in the oil exploration business. This line evolved into the Cray J90 and eventually the Cray SV1 in 1998.
In December 1991, Cray purchased some of the assets of Floating Point Systems, another minisuper vendor that had moved into the file server market with its SPARC-based Model 500 line.[15] These symmetric multiprocessing machines scaled up to 64 processors and ran a modified version of the Solaris operating system from Sun Microsystems. Cray set up Cray Research Superservers, Inc. (later the Cray Business Systems Division) to sell this system as the Cray S-MP, later replacing it with the Cray CS6400. In spite of these machines being some of the most powerful available when applied to appropriate workloads, Cray was never very successful in this market, possibly due to it being so foreign to its existing market niche.
In February 1996, Cray Research was acquired by Silicon Graphics (SGI) for $740 million.[17][18]
In May 1996, SGI sold the Superservers business to Sun.[19] Sun then turned the UltraSPARC-based Starfire project then under development into the extremely successful Sun Enterprise 10000 range of servers.[20] SGI used several Cray technologies in its attempt to move from the graphics workstation market into supercomputing. Key among these was the use of the Cray-developed HIPPIcomputer bus and details of the interconnects used in the T3 series. SGI's long-term strategy was to merge its high-end server line with Cray's product lines in two phases, code-named SN1 and SN2 (SN standing for "Scalable Node"). The SN1 was intended to replace the T3E and SGI Origin 2000 systems and later became the SN-MIPS or SGI Origin 3000 architecture. The SN2 was originally intended to unify all high-end/supercomputer product lines including the T90 into a single architecture. This goal was never achieved before SGI divested itself of the Cray business, and the SN2 name was later associated with the SN-IA or SGI Altix 3000 architecture.
In October 1996, founder Seymour Cray died as a result of a traffic accident.[21]
In 1998, under SGI ownership, one new Cray model line, the Cray SV1, was launched. This was a clustered SMP vector processor architecture, developed from J90 technology.[22]
Cray-designed HLRN-III Konrad (XC30/XC40) at Zuse Institute Berlin, featuring a portrait of German computer pioneer Konrad Zuse, 2014
After the Tera merger, the Tera MTA system was relaunched as the Cray MTA-2. This was not a commercial success and shipped to only two customers. Cray Inc. also unsuccessfully badged the NEC SX-6 supercomputer as the Cray SX-6 and acquired exclusive rights to sell the SX-6 in the US, Canada, and Mexico.
In 2002, Cray Inc. announced its first new model, the Cray X1 combined architecture vector processor / massively parallel supercomputer.[24] Previously known as the SV2, the X1 is the end result of the earlier SN2 concept originated during the SGI years. In May 2004, Cray was announced to be one of the partners in the United States Department of Energy's fastest-computer-in-the-world project to build a 50 teraFlops machine for the Oak Ridge National Laboratory. Cray was sued in 2002 by Isothermal Systems Research for patent infringement. The suit claimed that Cray used ISR's patented technology in the development of the Cray X1.[25] The lawsuit was settled in 2003.[26] As of November 2004, the Cray X1 had a maximum measured performance of 5.9 teraflops, being the 29th fastest supercomputer in the world. Since then the X1 has been superseded by the X1E, with faster dual-core processors.
On October 4, 2004, the company announced the Cray XD1 range of entry-level supercomputers which use dual-core 64-bitAdvanced Micro DevicesOpteroncentral processing units running Linux.[27] This system was previously known as the OctigaBay 12K before Cray's acquisition of that company. The XD1 provided one Xilinx Virtex II Pro field-programmable gate array (FPGA) with each node of four Opteron processors. The FPGAs could be configured to embody various digital hardware designs and could augment the processing or input/output capabilities of the Opteron processors. Furthermore, each FPGA contains a pair of PowerPC 405 processors which can add to the already considerable power of a single node. The Cray XD1, although moderately successful, was eventually discontinued.
In 2004, Cray completed the Red Storm system for Sandia National Laboratories. Red Storm was to become the jumping-off point for a string of successful products that eventually revitalized Cray in supercomputing. Red Storm had processors clustered in 96 unit cabinets, a theoretical maximum of 300 cabinets in a machine, and a design speed of 41.5 teraflops. Red Storm also included an innovative new design for network interconnects, which was dubbed SeaStar and destined to be the centerpiece of succeeding innovations by Cray. The Cray XT3 massively parallel supercomputer became a commercialized version of Red Storm, similar in many respects to the earlier T3E architecture, but, like the XD1, using AMD Opteron processors.
On August 8, 2005, Peter Ungaro was appointed CEO. Ungaro had joined Cray in August 2003 as Vice President of Sales and Marketing and had been made Cray's President in March 2005.[28]
Introduced in 2006, the Cray XT4 added support for DDR2 memory, newer dual-core and future quad-core Opteron processors and utilized a second generation SeaStar2 communication coprocessor. It also included an option for FPGA chips to be plugged directly into processor sockets, unlike the Cray XD1, which required a dedicated socket for the FPGA coprocessor.[29]
On November 13, 2006, Cray announced a new system, the Cray XMT, based on the MTA series of machines.[30][31] This system combined multi-threaded processors, as used on the original Tera systems, and the SeaStar2 interconnect used by the XT4. By reusing ASICs, boards, cabinets, and system software used by the comparatively higher volume XT4 product, the cost of making the very specialized MTA system could be reduced. A second generation of the XMT is scheduled for release in 2011, with the first system ordered by the Swiss National Supercomputing Center (CSCS).[32]
In 2006, Cray announced a vision of products dubbed Adaptive Supercomputing.[33] The first generation of such systems, dubbed the Rainier Project, used a common interconnect network (SeaStar2), programming environment, cabinet design, and I/O subsystem. These systems included the existing XT4 and the XMT. The second generation, launched as the XT5h, allowed a system to combine compute elements of various types into a common system, sharing infrastructure. The XT5h combined Opteron, vector, multithreaded, and FPGA compute processors in a single system.
In April 2008, Cray and Intel announced they would collaborate on future supercomputer systems. This partnership produced the Cray CX1 system, launched in September the same year. This was a deskside blade server system, comprising up to 16 dual- or quad-core Intel Xeon processors, with either MicrosoftWindows HPC Server 2008 or Red Hat Enterprise Linux installed.[34]
By 2009, the largest computer system Cray had delivered was the Cray XT5 system at National Center for Computational Sciences at Oak Ridge National Laboratories.[35] This system, with over 224,000 processing cores, was dubbed Jaguar and was the fastest computer in the world as measured by the LINPACK benchmark[36] at the speed of 1.75 petaflops[37] until being surpassed by the Tianhe-1A in October 2010. It was the first system to exceed a sustained performance of 1 petaflops on a 64-bit scientific application.
Cray stand at the 2018 Supercomputing Conference SC18 in Dallas, Texas, USA.
In May 2010, the Cray XE6 supercomputer was announced. The Cray XE6 system had at its core the new Gemini system interconnect. This new interconnect included a true global-address space and represented a return to the T3E feature set that had been so successful with Cray Research. This product was a successful follow-on to the XT3, XT4 and XT5 products. The first multi-cabinet XE6 system was shipped in July 2010. The next generation Cascade[38] systems were designed make use of future multicore and/or manycore processors from vendors such as Intel and Nvidia. Cascade was scheduled to be introduced in early 2013 and designed to use the next-generation network chip and follow-on to Gemini, code named Aries.
In early 2010, Cray also introduced the Cray CX1000, a rack-mounted system with a choice of compute-based, GPU-based, or SMP-based chassis.[39][40] The CX1 and CX1000 product lines were sold until late 2011.
In 2011, Cray announced the Cray XK6 hybrid supercomputer. The Cray XK6 system, capable of scaling to 500,000 processors and 50 petaflops of peak performance,[41] combines Cray's Gemini interconnect, AMD's multi-core scalar processors, and Nvidia's Tesla GPGPU processors. In October 2012 Cray announced the Cray XK7 which supports the Nvidia Kepler GPGPU and announced that the ORNL Jaguar system would be upgraded to an XK7 (renamed Titan) and capable of over 20 petaflops.[42] Titan was the world's fastest supercomputer as measured by the LINPACK benchmark[43] until the introduction of the Tianhe-2 in 2013, which is substantially faster.
In 2011 Cray also announced it had been awarded the $188 million Blue Waters contract with the University of Illinois at Urbana–Champaign, after IBM had pulled out of the delivery.[44][45] This system was delivered in 2012 and was the largest system to date, in terms of cabinets and general-purpose x86 processors, that Cray had ever delivered.
In November 2011, the Cray Sonexion 1300 Data Storage System was introduced and signaled Cray's entry into the high performance storage business. This product used modular technology and a Lustre file system.[46][47]
In 2011, Cray launched the OpenACC parallel programming standard organization.[48] In 2019, Cray announced that it was deprecating OpenACC, and will support OpenMP.[49] However, in 2022, the Cray Fortran compiler still supported OpenACC,[50] in part due to its usage in the ICON climate simulation code.[51]
In April 2012, Cray announced the sale of its interconnect hardware development program and related intellectual property to Intel for $140 million.[52][53][54]
On November 9, 2012, Cray announced the acquisition of Appro International, Inc., a California-based privately held developer of advanced scalable supercomputing solutions.[55] As of 2012 the #3 provider on the Top100 supercomputer list, Appro builds some of the world's most advanced high performance computing (HPC) cluster systems. In 2012, Cray also opened a subsidiary in China.[56]
Subsidiary of Hewlett Packard Enterprise: 2019–present
In October 2020, HPE was awarded the contract to build the pre-exascale EuroHPC computer LUMI, in Kajaani, Finland.[58] The contract, worth €144.5 million, is for an HPE Cray EX system, with a theoretical maximum performance of 550 petaflops. Once fully operational, LUMI will become one of the fastest supercomputers in the world.[59]
A supercomputer is a type of computer with a high level of performance as compared to a general-purpose computer. The performance of a supercomputer is commonly measured in floating-point operations per second (FLOPS) instead of million instructions per second (MIPS). Since 2017, supercomputers have existed, which can perform over 1017 FLOPS (a hundred quadrillion FLOPS, 100 petaFLOPS or 100 PFLOPS). For comparison, a desktop computer has performance in the range of hundreds of gigaFLOPS (1011) to tens of teraFLOPS (1013). Since November 2017, all of the world's fastest 500 supercomputers run on Linux-based operating systems. Additional research is being conducted in the United States, the European Union, Taiwan, Japan, and China to build faster, more powerful and technologically superior exascale supercomputers.
Floating point operations per second is a measure of computer performance in computing, useful in fields of scientific computations that require floating-point calculations.
NUMAlink is a system interconnect developed by Silicon Graphics (SGI) for use in its distributed shared memory ccNUMA computer systems. NUMAlink was originally developed by SGI for their Origin 2000 and Onyx2 systems. At the time of these systems' introduction, it was branded as "CrayLink" during SGI's brief ownership of Cray Research.
EPCC, formerly the Edinburgh Parallel Computing Centre, is a supercomputing centre based at the University of Edinburgh. Since its foundation in 1990, its stated mission has been to accelerate the effective exploitation of novel computing throughout industry, academia and commerce.
The Arctic Region Supercomputing Center (ARSC) was from 1993 to 2015 a research facility organized under the University of Alaska Fairbanks (UAF). Located on the UAF campus, ARSC offered high-performance computing (HPC) and mass storage to the UAF and State of Alaska research communities.
The Cray XT4 is an updated version of the Cray XT3 supercomputer. It was released on November 18, 2006. It includes an updated version of the SeaStar interconnect router called SeaStar2, processor sockets for Socket AM2 Opteron processors, and 240-pin unbuffered DDR2 memory. The XT4 also includes support for FPGA coprocessors that plug into riser cards in the Service and IO blades. The interconnect, cabinet, system software and programming environment remain unchanged from the Cray XT3. It was superseded in 2007 by the Cray XT5.
The Oak Ridge Leadership Computing Facility (OLCF), formerly the National Leadership Computing Facility, is a designated user facility operated by Oak Ridge National Laboratory and the Department of Energy. It contains several supercomputers, the largest of which is an HPE OLCF-5 named Frontier, which was ranked 1st on the TOP500 list of world's fastest supercomputers as of June 2023. It is located in Oak Ridge, Tennessee.
The TOP500 project ranks and details the 500 most powerful non-distributed computer systems in the world. The project was started in 1993 and publishes an updated list of the supercomputers twice a year. The first of these updates always coincides with the International Supercomputing Conference in June, and the second is presented at the ACM/IEEE Supercomputing Conference in November. The project aims to provide a reliable basis for tracking and detecting trends in high-performance computing and bases rankings on HPL benchmarks, a portable implementation of the high-performance LINPACK benchmark written in Fortran for distributed-memory computers.
The Cray XT5 is an updated version of the Cray XT4 supercomputer, launched on November 6, 2007. It includes a faster version of the XT4's SeaStar2 interconnect router called SeaStar2+, and can be configured either with XT4 compute blades, which have four dual-core AMD Opteron processor sockets, or XT5 blades, with eight sockets supporting dual or quad-core Opterons. The XT5 uses a 3-dimensional torus network topology.
Pleiades is a petascale supercomputer housed at the NASA Advanced Supercomputing (NAS) facility at NASA's Ames Research Center located at Moffett Field near Mountain View, California. It is maintained by NASA and partners Hewlett Packard Enterprise and Intel.
Jaguar or OLCF-2 was a petascale supercomputer built by Cray at Oak Ridge National Laboratory (ORNL) in Oak Ridge, Tennessee. The massively parallel Jaguar had a peak performance of just over 1,750 teraFLOPS. It had 224,256 x86-based AMD Opteron processor cores, and operated with a version of Linux called the Cray Linux Environment. Jaguar was a Cray XT5 system, a development from the Cray XT4 supercomputer.
Several centers for supercomputing exist across Europe, and distributed access to them is coordinated by European initiatives to facilitate high-performance computing. One such initiative, the HPC Europa project, fits within the Distributed European Infrastructure for Supercomputing Applications (DEISA), which was formed in 2002 as a consortium of eleven supercomputing centers from seven European countries. Operating within the CORDIS framework, HPC Europa aims to provide access to supercomputers across Europe.
XK7 is a supercomputing platform, produced by Cray, launched on October 29, 2012. XK7 is the second platform from Cray to use a combination of central processing units ("CPUs") and graphical processing units ("GPUs") for computing; the hybrid architecture requires a different approach to programming to that of CPU-only supercomputers. Laboratories that host XK7 machines host workshops to train researchers in the new programming languages needed for XK7 machines. The platform is used in Titan, the world's second fastest supercomputer in the November 2013 list as ranked by the TOP500 organization. Other customers include the Swiss National Supercomputing Centre which has a 272 node machine and Blue Waters has a machine that has Cray XE6 and XK7 nodes that performs at approximately 1 petaFLOPS (1015 floating-point operations per second).
The Cray XC40 is a massively parallel multiprocessor supercomputer manufactured by Cray. It consists of Intel Haswell Xeon processors, with optional Nvidia Tesla or Intel Xeon Phi accelerators, connected together by Cray's proprietary "Aries" interconnect, stored in air-cooled or liquid-cooled cabinets. The XC series supercomputers are available with the Cray DataWarp applications I/O accelerator technology.
The Cheyenne supercomputer at the NCAR-Wyoming Supercomputing Center (NWSC) in Cheyenne, Wyoming began operation as one of the world’s most powerful and energy-efficient computers. Ranked in November 2016 as the 20th most powerful computer in the world by Top500, the 5.34-petaflops system is capable of more than triple the amount of scientific computing performed by NCAR’s previous supercomputer, Yellowstone. It also is three times more energy efficient than Yellowstone, with a peak computation rate of more than 3 billion calculations per second for every watt of energy consumed.
The Cray XC50 is a massively parallel multiprocessor supercomputer manufactured by Cray. The machine can support Intel Xeon processors, as well as Cavium ThunderX2 processors, Xeon Phi processors and NVIDIA Tesla P100 GPUs. The processors are connected by Cray's proprietary "Aries" interconnect, in a dragonfly network topology. The XC50 is an evolution of the XC40, with the main difference being the support of Tesla P100 processors and the use of Cray software release CLE 6 or 7.
The European High-Performance Computing Joint Undertaking is a public-private partnership in High Performance Computing (HPC), enabling the pooling of European Union–level resources with the resources of participating EU Member States and participating associated states of the Horizon Europe and Digital Europe programmes, as well as private stakeholders. The Joint Undertaking has the twin stated aims of developing a pan-European supercomputing infrastructure, and supporting research and innovation activities. Located in Luxembourg City, Luxembourg, the Joint Undertaking started operating in November 2018 under the control of the European Commission and became autonomous in 2020.
Electra is a petascale supercomputer located at the Ames Research Center facility, manufactured by Hewlett Packard Enterprise in 2016 and commissioned at 2017. This is the first modular supercomputer prototype designed by NASA, as part of its research on making supercomputing more efficient and environment-friendly. Its research resulted in the Aitken supercomputer, destined for Moon landing and related research.
LUMI is a petascale supercomputer located at the CSC data center in Kajaani, Finland. As of January 2023, the computer is the fastest supercomputer in Europe.
HPC5 is a supercomputer built by Dell and installed by Eni, capable of 51.721 petaflops, and is ranked 9th in the Top500 as of November 2021. It is located in the Green Data Center in Ferrera Erbognone, in Northern Italy. In June 2020, HPC5 ranked 6th in the Green500. HPC5 is an upgrade to the HPC4 system, which was built by Hewlett Packard Enterprise and used by Eni. It is also called as HPC4+.
↑ Mallor, Jim (January 3, 1992). "Cray Research names manager of new subsidiary – Floating Point Systems' Martin Buchanan". Newsbytes News Network. Factivanbyt000020020615do1300048.
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$455.9 million (2018)
-$74.2 million (2018)
