SlideShare a Scribd company logo
1 of 26
Submitted By:
G . Sai Manohar
Roll No.18311A0315
Mech-B1
SNIST
Overview
Definition
History of Supercomputer Uses
of Supercomputer
Supercomputer challenges
Operating system of
Supercomputer Processing
speed
Top 10 Supercomputer
Supercomputer in India
Defintion
• A supercomputer is the fastest type of
computer. Supercomputers are very
expensive and are employed for
specialized applications that require large
amounts of mathematical calculations.
History
• 1946: John Mauchly and J. Presper Eckert
construct ENIAC (Electronic Numerical
Integrator And Computer) at the University of
Pennsylvania.
• 1956: IBM develops the Stretch supercomputer
for Los Alamos National Laboratory. It remains
the world's fastest computer until 1964.
• 1957: Seymour Cray co-founds Control Data
Corporation (CDC) and pioneers fast.
• 1976: First Cray-1 supercomputer is installed at
Los Alamos National Laboratory. It manages a
speed of about 160 MFLOPS
• 1989: Seymour Cray starts a new company, Cray
Computer, where he develops the Cray-3 and
Cray-4.
• 1993: Fujitsu Numerical Wind Tunnel becomes the
world's fastest computer using 166 vector
processors.
• 1997: ASCI Red, a supercomputer made from
Pentium processors by Intel and Sandia National
Laboratories, becomes the world's first teraflop
(TFLOP) supercomputer.
• 2008: The Jaguar supercomputer built by Cray
Research and Oak Ridge National Laboratory
becomes the world's first petaflop (PFLOP)
scientific supercomputer. Briefly the world's fastest
computer, it is soon superseded by machines from
Japan and China.
,
• Predicting climate change:
The challenge of predicting global climate
is immense. There are hundreds of variables, from the reflectivity of the
earth's surface(high for icy spots, low for dark forests) to the vagaries of
ocean currents.
Dealing with these variables requires supercomputing capabilities.
One model, created in 2008 at Brookhaven National Laboratory in New York,
mapped the aerosol particles and turbulence of clouds to a resolution of
30 square feet.
• Testing nuclear weapons
The Stockpile Stewardship program uses non-nuclear lab tests and, yes,
computer simulations to ensure that the country's cache of nuclear
weapons are functional
and safe. In 2012, IBM plans to unveil a new supercomputer Sequoia, at
Lawrence Livermore National Laboratory in California.
According to IBM, Sequoia will be a 20 petaflop machine, meaning it will be
capable of performing twenty thousand trillion calculations each second.
• Recreating the Big Bang
The Big Bang Researchers at the Texas Advanced
Computing Center (TACC) at the University of Texas in
Austin have also used supercomputers to
simulate the formation of the first galaxy, while scientists
at NASA’s Ames Research Center in Mountain View,
Calif., have simulated the creation of stars from cosmic
dust and gas.
• The "Big Bang," or the initial expansion of all energy
and matter in the universe, happened more than 13
billion years ago in trillion-degree Celsius temperatures,
but supercomputer simulations make it possible to
observe what went on during the universe's birth.
Forecastinghurricanes
This supercomputer, with its cowboy moniker and 579 trillion
calculations per second processing power, resides at the
TACC in Austin, Texas. Using data directly from National
Oceanographic and Atmospheric Agency airplanes, Ranger
calculated likely paths for the storm. According to a TACC
report, Ranger improved the five-day hurricane forecast by
15 percent.
Supercomputerchallenges
• A supercomputer generates large amounts of heat and
therefore must be cooled with complex cooling systems.
• Another issue is the speed at which information can be
transferred or written to a storage device, as the speed
of data transfer will limit the supercomputer's
performance.
• Supercomputers consume and produce massive
amounts of data in a very short period of time. Much
work on external storage bandwidth is needed to
ensure that this information can be transferred quickly
and stored/retrieved correctly.
Operatingsystemof Supercomputer
• Most supercomputers run on a Linux or Unix operating
system, as these operating systems are extremely
flexible, stable, and efficient. Supercomputers typically
have multiple processors and a variety of other
technological tricks to ensure that they run smoothly.
ProcessingSpeeds
• Supercomputer computational power is rated in
FLOPS
(Floating Point Operations Per Second).
• The first commercially available supercomputers
reached speeds of 10 to 100 million FLOPS. The next
generation of supercomputers is predicted to break
the petaflop level.
• This would represent computing power more than
1,000 times faster than a teraflop machine.
• A relatively old supercomputer such as the Cray
C90(1990s) has a processing speed of only 8
gigaflops. It can solve a problem, which takes a
personal computer a few hours, in
.002 seconds.
Top10Supercomputers
• Manufacture: NRCPC
• Cores: 10,649,600 cores
• Power: 15 megawatts
• Interconnect: Custom
• Operating System : Kylie Linux
• Sunway Taihulight –Specification:
There are a total of 10,649,600 Intel cores and 125.44 petaflops of
peak performance of RAM, making Sunway by far the largest
installation of Intel CPUs in the world . Total no of computer nodes is
40,960.
It has no accelerator chips, relying instead on 40,960 Sunway 26010
processors . Each has 260 cores.
1. SunwayTaihulight [CHINA]
2. Tainhe-2 [CHINA]
• Manufacture: NUDT
• Cores: 3,120,000
cores
• Power: 17.6
megawatts
Interconnect: Custom
Operating System :
Kylie Linux
• Tainhe-2 –Specification:
There are a total of 3,120,000 Intel cores and 54.90 petaflops of peak
performance of RAM, making Tianhe-2 by far one of the largest
installation of Intel CPUs in the world.Each compute node has a total
of 88GB of RAM.
Total having 125 cabinets housing 16,000 compute nodes each of
which contains two Intel Xeon (Ivy Bridge) CPUs
3. Piz Daint [SWITZERLAND]
• Manufacturer : Cray
• Cores:361,760 CPU cores
• Interconnect: Gemini
• Operating System: Cray Linux Environment
Piz Daint Specification: Its 361,760 cores deliver the
maximum sustained performance.
• Performance is 19.59 petaflops.
• Having total 361,760 cores.
• Peak performance of 25.33 petaflops.
4. Gyoukou [JAPAN]
• Manufacturer : ExaScaler
• Cores:19,840,000 cores
• Interconnect: Gemini
• Operating System: Cray Linux Environment
Gyoukuo Specification: Its 19,840,000 cores
deliver the maximum sustained performance.
• Performance is 19.14 petaflops.
• Peak performance of 28.19 petaflops.
5. Titan [USA]
• Manufacturer : Oakridge
• Cores:560,640 cores
• Interconnect: Gemini
• Operating System: Cray Linux Environment
Titan Specification: Its 560,640 cores deliver
the maximum sustained performance.
• Performance is 17.59 petaflops.
• Peak performance of 27.11 petaflops.
6. SequoiaLawrence Livermore National
Laboratory United-
States, 2013
• Manufacture: IBM
• Cores:1,572,864processorcores
• Power:7.9MW
• OperatingSystem:RedHatEnterprise
Linux
• Sequoia Specification:
96 racks containing 98,304 compute nodes. The
compute nodes are 16-corePowerPC A2 processor
chips with16 GB of DDR3 memory each.
7. Trinity [USA]
• Manufacturer : Los Alamos National Laboratory
• Cores:979,968 cores
• Interconnect: Gemini
• Operating System: Cray Linux Environment
Titan Specification: Its 979,968 cores deliver the
maximum sustained performance.
• Performance is 14.14 petaflops.
• Peak performance of 43.90 petaflops.
8. Cori [USA]
• Manufacturer : Lawrence Berkeley National Laboratory
• Cores:622,336 cores
• Interconnect: Gemini
• Operating System: Cray Linux Environment
Titan Specification: Its 622,336 cores deliver
the maximum sustained performance.
• Performance is 14.01 petaflops.
• Peak performance of 27.88 petaflops.
9. Oakforest-PACS [JAPAN]
• Manufacturer : JCAHPC
• Cores:556,104 cores
• Interconnect: Gemini
• Operating System: Cray Linux Environment
Titan Specification: Its 556,104 cores deliver
the maximum sustained performance.
• Performance is 13.55 petaflops.
• Peak performance of 24.91 petaflops.
10. Kcomputer RIKENJapan,
2011
• Manufacture: Fujitsu
• Cores:640,000 cores
• Power:12.6 Mw
• Interconnect: six-dimensional torus interconnect
• Operating System: Linux Kernel
K Computer Specification:
• The K computer comprises over 80,000 2.0 GHz 8-core SPARC64
VIIIfx processors contained in 864 cabinets, for a total of over
640,000 cores.
• Each cabinet contains 96 computing nodes, in addition to 6 I/O
nodes.
• The computer's water cooling system is designed to minimize failure
rate and power consumption.
• K had set a record with a performance of 8.162petaflops, making it
the fastest supercomputer
• K computer has the most complex water cooling system in the world.
Supercomputerin India
Aaditya: Indian Institute of Tropical Meteorology,
Pune, has a machine with a theoretical peak of
790.7 teraflop/s, called Aaditya, which is used
for climate research and operational forecasting.
• It ranked 36th among the world's top 500
supercomputers June 2013 list.
PARAMYuvaII
• This supercomputer was made by Centre for Development of
Advanced Computing in a period of three months, at a cost of ₹160
million (US$2 million).
• It performs at a peak of 524 teraflop/s, about 10 times faster than
the present facility.
• Param Yuva II will be used for research in space, bioinformatics,
weather forecasting, seismic data analysis, aeronautical
engineering, scientific data processing and pharmaceutical
development.
Advantages
• Decreasing processing speed.
• Solving new problems.
Lowering costs.
• Improving safety.
Disadvantages
• Storage and band width.
• Maintenance and support.
• Costly.
• Processing time.
Super Computers

More Related Content

What's hot

Supercomputers
SupercomputersSupercomputers
Supercomputers
parwind
 
Evolution Of The Computers
Evolution Of The ComputersEvolution Of The Computers
Evolution Of The Computers
panitiaict
 
Types of computer
Types of computerTypes of computer
Types of computer
latifah2001
 
Computer history1
Computer history1Computer history1
Computer history1
Naman Jain
 
History Of Computer
History Of ComputerHistory Of Computer
History Of Computer
guest420b9d
 

What's hot (20)

Super computers
Super computersSuper computers
Super computers
 
Brief Definition of Supercomputers
Brief Definition of SupercomputersBrief Definition of Supercomputers
Brief Definition of Supercomputers
 
Super computer
Super computerSuper computer
Super computer
 
Super computer ppt
Super computer pptSuper computer ppt
Super computer ppt
 
supercomputer
supercomputersupercomputer
supercomputer
 
Supercomputer @ manarat university by reza
Supercomputer  @ manarat university by rezaSupercomputer  @ manarat university by reza
Supercomputer @ manarat university by reza
 
Supercomputers
SupercomputersSupercomputers
Supercomputers
 
SUPERCOMPUTER
SUPERCOMPUTERSUPERCOMPUTER
SUPERCOMPUTER
 
Evolution of modern super computers
Evolution of modern  super computersEvolution of modern  super computers
Evolution of modern super computers
 
Minicomputers
MinicomputersMinicomputers
Minicomputers
 
History of computer
History of computerHistory of computer
History of computer
 
Evolution Of The Computers
Evolution Of The ComputersEvolution Of The Computers
Evolution Of The Computers
 
Mainframes
MainframesMainframes
Mainframes
 
Quantum computing
Quantum computingQuantum computing
Quantum computing
 
Types of computer
Types of computerTypes of computer
Types of computer
 
Computer history1
Computer history1Computer history1
Computer history1
 
Computer presentation
Computer presentationComputer presentation
Computer presentation
 
Generation of computer 1st to 5th
Generation of computer 1st to 5th Generation of computer 1st to 5th
Generation of computer 1st to 5th
 
History Of Computer
History Of ComputerHistory Of Computer
History Of Computer
 
Computer System Organization
Computer System OrganizationComputer System Organization
Computer System Organization
 

Similar to Super Computers

Big Data Everywhere Chicago: High Performance Computing - Contributions Towar...
Big Data Everywhere Chicago: High Performance Computing - Contributions Towar...Big Data Everywhere Chicago: High Performance Computing - Contributions Towar...
Big Data Everywhere Chicago: High Performance Computing - Contributions Towar...
BigDataEverywhere
 
Valladolid final-septiembre-2010
Valladolid final-septiembre-2010Valladolid final-septiembre-2010
Valladolid final-septiembre-2010
TELECOM I+D
 

Similar to Super Computers (20)

How HPC and large-scale data analytics are transforming experimental science
How HPC and large-scale data analytics are transforming experimental scienceHow HPC and large-scale data analytics are transforming experimental science
How HPC and large-scale data analytics are transforming experimental science
 
Big Data Everywhere Chicago: High Performance Computing - Contributions Towar...
Big Data Everywhere Chicago: High Performance Computing - Contributions Towar...Big Data Everywhere Chicago: High Performance Computing - Contributions Towar...
Big Data Everywhere Chicago: High Performance Computing - Contributions Towar...
 
Experience of Running Spark on Kubernetes on OpenStack for High Energy Physic...
Experience of Running Spark on Kubernetes on OpenStack for High Energy Physic...Experience of Running Spark on Kubernetes on OpenStack for High Energy Physic...
Experience of Running Spark on Kubernetes on OpenStack for High Energy Physic...
 
Barcelona Supercomputing Center, Generador de Riqueza
Barcelona Supercomputing Center, Generador de RiquezaBarcelona Supercomputing Center, Generador de Riqueza
Barcelona Supercomputing Center, Generador de Riqueza
 
ECESLU Microprocessors lecture
ECESLU Microprocessors lecture ECESLU Microprocessors lecture
ECESLU Microprocessors lecture
 
Valladolid final-septiembre-2010
Valladolid final-septiembre-2010Valladolid final-septiembre-2010
Valladolid final-septiembre-2010
 
CLOUD COMPUTING: AN ALTERNATIVE PLATFORM FOR SCIENTIFIC COMPUTING
CLOUD COMPUTING: AN ALTERNATIVE PLATFORM FOR  SCIENTIFIC COMPUTINGCLOUD COMPUTING: AN ALTERNATIVE PLATFORM FOR  SCIENTIFIC COMPUTING
CLOUD COMPUTING: AN ALTERNATIVE PLATFORM FOR SCIENTIFIC COMPUTING
 
Super computers in_uk
Super computers in_ukSuper computers in_uk
Super computers in_uk
 
Hardware architecture of Summit Supercomputer
 Hardware architecture of Summit Supercomputer Hardware architecture of Summit Supercomputer
Hardware architecture of Summit Supercomputer
 
Summit supercomputer
Summit supercomputerSummit supercomputer
Summit supercomputer
 
HPC Cluster Computing from 64 to 156,000 Cores 
HPC Cluster Computing from 64 to 156,000 Cores HPC Cluster Computing from 64 to 156,000 Cores 
HPC Cluster Computing from 64 to 156,000 Cores 
 
Build FAST Learning Apps with Docker and OpenPOWER
Build FAST Learning Apps with Docker and OpenPOWERBuild FAST Learning Apps with Docker and OpenPOWER
Build FAST Learning Apps with Docker and OpenPOWER
 
Computer Evolution
Computer EvolutionComputer Evolution
Computer Evolution
 
EXASXALE COMPUTING
EXASXALE COMPUTINGEXASXALE COMPUTING
EXASXALE COMPUTING
 
Comparison between computers of past and present
Comparison between computers of past and presentComparison between computers of past and present
Comparison between computers of past and present
 
Opportunities of ML-based data analytics in ABCI
Opportunities of ML-based data analytics in ABCIOpportunities of ML-based data analytics in ABCI
Opportunities of ML-based data analytics in ABCI
 
Operational War Stories from 5 Years of Running OpenStack in Production
Operational War Stories from 5 Years of Running OpenStack in ProductionOperational War Stories from 5 Years of Running OpenStack in Production
Operational War Stories from 5 Years of Running OpenStack in Production
 
IBM and ASTRON 64bit μServer for DOME
IBM and ASTRON 64bit μServer for DOMEIBM and ASTRON 64bit μServer for DOME
IBM and ASTRON 64bit μServer for DOME
 
Colloborative computing
Colloborative computing Colloborative computing
Colloborative computing
 
TOPIC 1 LECTURE- DEVELOPMENT OF COMPUTERS.pdf
TOPIC 1 LECTURE- DEVELOPMENT OF COMPUTERS.pdfTOPIC 1 LECTURE- DEVELOPMENT OF COMPUTERS.pdf
TOPIC 1 LECTURE- DEVELOPMENT OF COMPUTERS.pdf
 

More from SAIMANOHARGANDREDDI

More from SAIMANOHARGANDREDDI (7)

Electronic stability control
Electronic stability controlElectronic stability control
Electronic stability control
 
Cs lab ppt academic freedom
Cs lab ppt academic freedomCs lab ppt academic freedom
Cs lab ppt academic freedom
 
Crystal field theory
Crystal field theoryCrystal field theory
Crystal field theory
 
Time travel
Time travel Time travel
Time travel
 
Affects of Social Media
Affects of Social MediaAffects of Social Media
Affects of Social Media
 
Hybrid cars
Hybrid carsHybrid cars
Hybrid cars
 
Traction control system
Traction control systemTraction control system
Traction control system
 

Recently uploaded

Architecting Cloud Native Applications
Architecting Cloud Native ApplicationsArchitecting Cloud Native Applications
Architecting Cloud Native Applications
WSO2
 
Modular Monolith - a Practical Alternative to Microservices @ Devoxx UK 2024
Modular Monolith - a Practical Alternative to Microservices @ Devoxx UK 2024Modular Monolith - a Practical Alternative to Microservices @ Devoxx UK 2024
Modular Monolith - a Practical Alternative to Microservices @ Devoxx UK 2024
Victor Rentea
 

Recently uploaded (20)

DBX First Quarter 2024 Investor Presentation
DBX First Quarter 2024 Investor PresentationDBX First Quarter 2024 Investor Presentation
DBX First Quarter 2024 Investor Presentation
 
How to Troubleshoot Apps for the Modern Connected Worker
How to Troubleshoot Apps for the Modern Connected WorkerHow to Troubleshoot Apps for the Modern Connected Worker
How to Troubleshoot Apps for the Modern Connected Worker
 
Rising Above_ Dubai Floods and the Fortitude of Dubai International Airport.pdf
Rising Above_ Dubai Floods and the Fortitude of Dubai International Airport.pdfRising Above_ Dubai Floods and the Fortitude of Dubai International Airport.pdf
Rising Above_ Dubai Floods and the Fortitude of Dubai International Airport.pdf
 
Architecting Cloud Native Applications
Architecting Cloud Native ApplicationsArchitecting Cloud Native Applications
Architecting Cloud Native Applications
 
WSO2's API Vision: Unifying Control, Empowering Developers
WSO2's API Vision: Unifying Control, Empowering DevelopersWSO2's API Vision: Unifying Control, Empowering Developers
WSO2's API Vision: Unifying Control, Empowering Developers
 
CNIC Information System with Pakdata Cf In Pakistan
CNIC Information System with Pakdata Cf In PakistanCNIC Information System with Pakdata Cf In Pakistan
CNIC Information System with Pakdata Cf In Pakistan
 
[BuildWithAI] Introduction to Gemini.pdf
[BuildWithAI] Introduction to Gemini.pdf[BuildWithAI] Introduction to Gemini.pdf
[BuildWithAI] Introduction to Gemini.pdf
 
Strategies for Landing an Oracle DBA Job as a Fresher
Strategies for Landing an Oracle DBA Job as a FresherStrategies for Landing an Oracle DBA Job as a Fresher
Strategies for Landing an Oracle DBA Job as a Fresher
 
Six Myths about Ontologies: The Basics of Formal Ontology
Six Myths about Ontologies: The Basics of Formal OntologySix Myths about Ontologies: The Basics of Formal Ontology
Six Myths about Ontologies: The Basics of Formal Ontology
 
Connector Corner: Accelerate revenue generation using UiPath API-centric busi...
Connector Corner: Accelerate revenue generation using UiPath API-centric busi...Connector Corner: Accelerate revenue generation using UiPath API-centric busi...
Connector Corner: Accelerate revenue generation using UiPath API-centric busi...
 
Repurposing LNG terminals for Hydrogen Ammonia: Feasibility and Cost Saving
Repurposing LNG terminals for Hydrogen Ammonia: Feasibility and Cost SavingRepurposing LNG terminals for Hydrogen Ammonia: Feasibility and Cost Saving
Repurposing LNG terminals for Hydrogen Ammonia: Feasibility and Cost Saving
 
Web Form Automation for Bonterra Impact Management (fka Social Solutions Apri...
Web Form Automation for Bonterra Impact Management (fka Social Solutions Apri...Web Form Automation for Bonterra Impact Management (fka Social Solutions Apri...
Web Form Automation for Bonterra Impact Management (fka Social Solutions Apri...
 
Exploring Multimodal Embeddings with Milvus
Exploring Multimodal Embeddings with MilvusExploring Multimodal Embeddings with Milvus
Exploring Multimodal Embeddings with Milvus
 
MINDCTI Revenue Release Quarter One 2024
MINDCTI Revenue Release Quarter One 2024MINDCTI Revenue Release Quarter One 2024
MINDCTI Revenue Release Quarter One 2024
 
JohnPollard-hybrid-app-RailsConf2024.pptx
JohnPollard-hybrid-app-RailsConf2024.pptxJohnPollard-hybrid-app-RailsConf2024.pptx
JohnPollard-hybrid-app-RailsConf2024.pptx
 
Less Is More: Utilizing Ballerina to Architect a Cloud Data Platform
Less Is More: Utilizing Ballerina to Architect a Cloud Data PlatformLess Is More: Utilizing Ballerina to Architect a Cloud Data Platform
Less Is More: Utilizing Ballerina to Architect a Cloud Data Platform
 
Modular Monolith - a Practical Alternative to Microservices @ Devoxx UK 2024
Modular Monolith - a Practical Alternative to Microservices @ Devoxx UK 2024Modular Monolith - a Practical Alternative to Microservices @ Devoxx UK 2024
Modular Monolith - a Practical Alternative to Microservices @ Devoxx UK 2024
 
DEV meet-up UiPath Document Understanding May 7 2024 Amsterdam
DEV meet-up UiPath Document Understanding May 7 2024 AmsterdamDEV meet-up UiPath Document Understanding May 7 2024 Amsterdam
DEV meet-up UiPath Document Understanding May 7 2024 Amsterdam
 
Understanding the FAA Part 107 License ..
Understanding the FAA Part 107 License ..Understanding the FAA Part 107 License ..
Understanding the FAA Part 107 License ..
 
WSO2 Micro Integrator for Enterprise Integration in a Decentralized, Microser...
WSO2 Micro Integrator for Enterprise Integration in a Decentralized, Microser...WSO2 Micro Integrator for Enterprise Integration in a Decentralized, Microser...
WSO2 Micro Integrator for Enterprise Integration in a Decentralized, Microser...
 

Super Computers

  • 1. Submitted By: G . Sai Manohar Roll No.18311A0315 Mech-B1 SNIST
  • 2. Overview Definition History of Supercomputer Uses of Supercomputer Supercomputer challenges Operating system of Supercomputer Processing speed Top 10 Supercomputer Supercomputer in India
  • 3. Defintion • A supercomputer is the fastest type of computer. Supercomputers are very expensive and are employed for specialized applications that require large amounts of mathematical calculations.
  • 4. History • 1946: John Mauchly and J. Presper Eckert construct ENIAC (Electronic Numerical Integrator And Computer) at the University of Pennsylvania. • 1956: IBM develops the Stretch supercomputer for Los Alamos National Laboratory. It remains the world's fastest computer until 1964. • 1957: Seymour Cray co-founds Control Data Corporation (CDC) and pioneers fast. • 1976: First Cray-1 supercomputer is installed at Los Alamos National Laboratory. It manages a speed of about 160 MFLOPS
  • 5. • 1989: Seymour Cray starts a new company, Cray Computer, where he develops the Cray-3 and Cray-4. • 1993: Fujitsu Numerical Wind Tunnel becomes the world's fastest computer using 166 vector processors. • 1997: ASCI Red, a supercomputer made from Pentium processors by Intel and Sandia National Laboratories, becomes the world's first teraflop (TFLOP) supercomputer. • 2008: The Jaguar supercomputer built by Cray Research and Oak Ridge National Laboratory becomes the world's first petaflop (PFLOP) scientific supercomputer. Briefly the world's fastest computer, it is soon superseded by machines from Japan and China.
  • 6. , • Predicting climate change: The challenge of predicting global climate is immense. There are hundreds of variables, from the reflectivity of the earth's surface(high for icy spots, low for dark forests) to the vagaries of ocean currents. Dealing with these variables requires supercomputing capabilities. One model, created in 2008 at Brookhaven National Laboratory in New York, mapped the aerosol particles and turbulence of clouds to a resolution of 30 square feet. • Testing nuclear weapons The Stockpile Stewardship program uses non-nuclear lab tests and, yes, computer simulations to ensure that the country's cache of nuclear weapons are functional and safe. In 2012, IBM plans to unveil a new supercomputer Sequoia, at Lawrence Livermore National Laboratory in California. According to IBM, Sequoia will be a 20 petaflop machine, meaning it will be capable of performing twenty thousand trillion calculations each second.
  • 7. • Recreating the Big Bang The Big Bang Researchers at the Texas Advanced Computing Center (TACC) at the University of Texas in Austin have also used supercomputers to simulate the formation of the first galaxy, while scientists at NASA’s Ames Research Center in Mountain View, Calif., have simulated the creation of stars from cosmic dust and gas. • The "Big Bang," or the initial expansion of all energy and matter in the universe, happened more than 13 billion years ago in trillion-degree Celsius temperatures, but supercomputer simulations make it possible to observe what went on during the universe's birth.
  • 8. Forecastinghurricanes This supercomputer, with its cowboy moniker and 579 trillion calculations per second processing power, resides at the TACC in Austin, Texas. Using data directly from National Oceanographic and Atmospheric Agency airplanes, Ranger calculated likely paths for the storm. According to a TACC report, Ranger improved the five-day hurricane forecast by 15 percent.
  • 9. Supercomputerchallenges • A supercomputer generates large amounts of heat and therefore must be cooled with complex cooling systems. • Another issue is the speed at which information can be transferred or written to a storage device, as the speed of data transfer will limit the supercomputer's performance. • Supercomputers consume and produce massive amounts of data in a very short period of time. Much work on external storage bandwidth is needed to ensure that this information can be transferred quickly and stored/retrieved correctly.
  • 10. Operatingsystemof Supercomputer • Most supercomputers run on a Linux or Unix operating system, as these operating systems are extremely flexible, stable, and efficient. Supercomputers typically have multiple processors and a variety of other technological tricks to ensure that they run smoothly.
  • 11. ProcessingSpeeds • Supercomputer computational power is rated in FLOPS (Floating Point Operations Per Second). • The first commercially available supercomputers reached speeds of 10 to 100 million FLOPS. The next generation of supercomputers is predicted to break the petaflop level. • This would represent computing power more than 1,000 times faster than a teraflop machine. • A relatively old supercomputer such as the Cray C90(1990s) has a processing speed of only 8 gigaflops. It can solve a problem, which takes a personal computer a few hours, in .002 seconds.
  • 12. Top10Supercomputers • Manufacture: NRCPC • Cores: 10,649,600 cores • Power: 15 megawatts • Interconnect: Custom • Operating System : Kylie Linux • Sunway Taihulight –Specification: There are a total of 10,649,600 Intel cores and 125.44 petaflops of peak performance of RAM, making Sunway by far the largest installation of Intel CPUs in the world . Total no of computer nodes is 40,960. It has no accelerator chips, relying instead on 40,960 Sunway 26010 processors . Each has 260 cores. 1. SunwayTaihulight [CHINA]
  • 13. 2. Tainhe-2 [CHINA] • Manufacture: NUDT • Cores: 3,120,000 cores • Power: 17.6 megawatts Interconnect: Custom Operating System : Kylie Linux • Tainhe-2 –Specification: There are a total of 3,120,000 Intel cores and 54.90 petaflops of peak performance of RAM, making Tianhe-2 by far one of the largest installation of Intel CPUs in the world.Each compute node has a total of 88GB of RAM. Total having 125 cabinets housing 16,000 compute nodes each of which contains two Intel Xeon (Ivy Bridge) CPUs
  • 14. 3. Piz Daint [SWITZERLAND] • Manufacturer : Cray • Cores:361,760 CPU cores • Interconnect: Gemini • Operating System: Cray Linux Environment Piz Daint Specification: Its 361,760 cores deliver the maximum sustained performance. • Performance is 19.59 petaflops. • Having total 361,760 cores. • Peak performance of 25.33 petaflops.
  • 15. 4. Gyoukou [JAPAN] • Manufacturer : ExaScaler • Cores:19,840,000 cores • Interconnect: Gemini • Operating System: Cray Linux Environment Gyoukuo Specification: Its 19,840,000 cores deliver the maximum sustained performance. • Performance is 19.14 petaflops. • Peak performance of 28.19 petaflops.
  • 16. 5. Titan [USA] • Manufacturer : Oakridge • Cores:560,640 cores • Interconnect: Gemini • Operating System: Cray Linux Environment Titan Specification: Its 560,640 cores deliver the maximum sustained performance. • Performance is 17.59 petaflops. • Peak performance of 27.11 petaflops.
  • 17. 6. SequoiaLawrence Livermore National Laboratory United- States, 2013 • Manufacture: IBM • Cores:1,572,864processorcores • Power:7.9MW • OperatingSystem:RedHatEnterprise Linux • Sequoia Specification: 96 racks containing 98,304 compute nodes. The compute nodes are 16-corePowerPC A2 processor chips with16 GB of DDR3 memory each.
  • 18. 7. Trinity [USA] • Manufacturer : Los Alamos National Laboratory • Cores:979,968 cores • Interconnect: Gemini • Operating System: Cray Linux Environment Titan Specification: Its 979,968 cores deliver the maximum sustained performance. • Performance is 14.14 petaflops. • Peak performance of 43.90 petaflops.
  • 19. 8. Cori [USA] • Manufacturer : Lawrence Berkeley National Laboratory • Cores:622,336 cores • Interconnect: Gemini • Operating System: Cray Linux Environment Titan Specification: Its 622,336 cores deliver the maximum sustained performance. • Performance is 14.01 petaflops. • Peak performance of 27.88 petaflops.
  • 20. 9. Oakforest-PACS [JAPAN] • Manufacturer : JCAHPC • Cores:556,104 cores • Interconnect: Gemini • Operating System: Cray Linux Environment Titan Specification: Its 556,104 cores deliver the maximum sustained performance. • Performance is 13.55 petaflops. • Peak performance of 24.91 petaflops.
  • 21. 10. Kcomputer RIKENJapan, 2011 • Manufacture: Fujitsu • Cores:640,000 cores • Power:12.6 Mw • Interconnect: six-dimensional torus interconnect • Operating System: Linux Kernel K Computer Specification: • The K computer comprises over 80,000 2.0 GHz 8-core SPARC64 VIIIfx processors contained in 864 cabinets, for a total of over 640,000 cores. • Each cabinet contains 96 computing nodes, in addition to 6 I/O nodes. • The computer's water cooling system is designed to minimize failure rate and power consumption. • K had set a record with a performance of 8.162petaflops, making it the fastest supercomputer • K computer has the most complex water cooling system in the world.
  • 22. Supercomputerin India Aaditya: Indian Institute of Tropical Meteorology, Pune, has a machine with a theoretical peak of 790.7 teraflop/s, called Aaditya, which is used for climate research and operational forecasting. • It ranked 36th among the world's top 500 supercomputers June 2013 list.
  • 23. PARAMYuvaII • This supercomputer was made by Centre for Development of Advanced Computing in a period of three months, at a cost of ₹160 million (US$2 million). • It performs at a peak of 524 teraflop/s, about 10 times faster than the present facility. • Param Yuva II will be used for research in space, bioinformatics, weather forecasting, seismic data analysis, aeronautical engineering, scientific data processing and pharmaceutical development.
  • 24. Advantages • Decreasing processing speed. • Solving new problems. Lowering costs. • Improving safety.
  • 25. Disadvantages • Storage and band width. • Maintenance and support. • Costly. • Processing time.