From NASA, new fossil fuel powered toys for the boys.
Related: “Giant sucking sound” heard in Greenbelt, MD when the switch was thrown.
Remember the day you got a brand-new computer? Applications snapped open, processes that once took minutes finished in seconds, and graphics and animation flowed as smoothly as TV video. But several months and many new applications later, the bloom fell off the rose.
Your lightning-fast computer no longer was fast. You needed more memory and faster processors to handle the gigabytes of new files now embedded in your machine.
Climate scientists can relate.
They, too, need more powerful computers to process the sophisticated computer models used in climate forecasts. Such an expanded capability is now being developed at NASA’s Goddard Space Flight Center in Greenbelt, Md.
High-End Computing System Installed
In August, Goddard added 4,128 new-generation Intel “Nehalem” processors to its Discover high-end computing system. The upgraded Discover will serve as the centerpiece of a new climate simulation capability at Goddard. Discover will host NASA’s modeling contributions to the Intergovernmental Panel on Climate Change (IPCC), the leading scientific organization for assessing climate change, and other national and international climate initiatives.
To further enhance Discover’s capabilities, Goddard will install another 4,128 Nehalem processors in the fall, bringing Discover to 15,160 processors.
“We are the first high-end computing site in the United States to install Nehalem processors dedicated to climate research,” said Phil Webster, chief of Goddard’s Computational and Information Sciences and Technology Office (CISTO). “This new computing system represents a dramatic step forward in performance for climate simulations.”
Well-Suited for Climate Studies
According to CISTO lead architect Dan Duffy, the Nehalem architecture is especially well-suited to climate studies. “Speed is an inherent advantage for solving complex problems, but climate models also require large memory and fast access to memory,” he said. Each processor has 3 gigabytes of memory, among the highest available today. In addition, memory access is three to four times faster than Discover’s previous-generation processors.
In preliminary testing of Discover’s Nehalem processors, NASA climate simulations performed up to twice as fast per processor compared with other nationally recognized high-end computing systems. The new computational capabilities also allowed NASA climate scientists to run high-resolution simulations that reproduced atmospheric features not previously seen in their models.
For instance, “features such as well-defined hurricane eyewalls and convective cloud clusters appeared for the first time,” said William Putman, acting lead of the Advanced Software Technology Group in Goddard’s Software Integration and Visualization Office. “At these cloud-permitting resolutions, the differences are stunning.”
IPCC Simulations
For the IPCC studies, scientists will run both longer-term and shorter-term climate projections using different computer models. A climate model from the Goddard Institute for Space Studies will perform simulations going back a full millennium and forward to 2100. Goddard’s Global Modeling and Assimilation Office will use a climate model for projections of the next 30 years and an atmospheric chemistry-climate model for short-term simulations of chemistry-climate feedbacks. The IPCC will use information from climate simulations such as these in its Fifth Assessment Report, which IPCC expects to publish in 2014.
NASA climate simulation efforts also contribute to the U.S. Global Change Research Program, the U.S. Integrated Earth Observation System, and the U.S. Weather Research Program. Supported international programs include UNESCO’s Intergovernmental Oceanographic Commission, the United Nations Environment Programme, the World Climate Research Programme, the World Meteorological Organization, and the World Weather Research Programme.
News Release from NASA here
NASA Expands High-End Computing System for Climate Simulation
WASHINGTON, DC UNITED STATES
GREENBELT, Md., Aug. 24 /PRNewswire-USNewswire/ — NASA’s Goddard Space Flight Center in Greenbelt, Md., made available to scientists in August the first unit of an expanded high-end computing system that will serve as the centerpiece of a new climate simulation capability. The larger computer, part of NASA’s High-End Computing Program, will be hosting the agency’s modeling contributions to the Intergovernmental Panel on Climate Change (IPCC) and other national and international climate initiatives.
The expansion added 4,128 computer processors to Goddard’s Discover high-end computing system. The IBM iDataPlex “scalable unit” uses Intel’s newest Xeon 5500 series processors, which are based on the Nehalem architecture introduced in spring 2009.
Discover will be hosting climate simulations for the IPCC’s Fifth Assessment Report by the Goddard Institute for Space Studies (GISS) in New York City and Goddard’s Global Modeling and Assimilation Office (GMAO). Stimulus funds from the American Recovery and Reinvestment Act of 2009 will enable installation of another 4,128 Nehalem processors this fall, bringing Discover to 15,160 processors.
“We are the first high-end computing site in the United States to install Nehalem processors dedicated to climate research,” said Phil Webster, chief of the Computational and Information Sciences and Technology Office (CISTO) at Goddard. “This new computing system represents a dramatic step forward in performance for climate simulations.”
In preliminary testing of Discover’s Nehalem processors, NASA climate simulations performed up to twice as fast per processor compared to other nationally recognized high-end computing systems. Moreover, the new computational capabilities allow NASA climate scientists to run high-resolution simulations that reproduce atmospheric features not previously seen in their models.
“Nehalem architecture is especially well-suited to climate studies,” said Dan Duffy, CISTO lead architect. “Speed is an inherent advantage for solving complex problems, but climate models need large memory and fast access. We configured our Nehalem system to have 3 gigabytes of memory per processor, among the highest available today, and memory access is three to four times faster than Discover’s previous-generation processors.”
In daily forecasts for NASA satellite missions and field campaigns, the GMAO typically runs its flagship Goddard Earth Observing System Model, Version 5 (GEOS-5) at 27-kilometer resolution. Using Discover’s new processors, the GMAO has been testing a special “cubed-sphere” version of GEOS-5 at resolutions as high as 3.5 kilometers.
“Once the model goes below 10-kilometer resolution, features such as well-defined hurricane eyewalls and convective cloud clusters appear for the first time,” said William Putman, acting lead of the Advanced Software Technology Group in Goddard’s Software Integration and Visualization Office. “At these cloud-permitting resolutions, the differences are stunning.” Putman has been collaborating with GMAO modeling lead Max Suarez and others on the cubed-sphere configuration of GEOS-5.
NASA’s IPCC simulations will include both longer-and-shorter-term climate projections using the latest versions of the GISS and GMAO models. GISS ModelE will perform simulations going back a full millennium and forward to 2100. Making its first IPCC contributions, the GMAO will focus on the next 30 years and perform decadal prediction simulations using GEOS-5 and atmospheric chemistry-climate simulations using the GEOS Chemistry Climate Model. With the performance of GEOS-5 on the Nehalem processors, investigations of societal relevance, such as climate impacts on weather extremes, now reach a new level of realism. The IPCC’s Fifth Assessment Report is due to be published in 2014.
NASA climate simulation efforts also contribute to the U.S. Global Change Research Program, the U.S. Integrated Earth Observation System, and the U.S. Weather Research Program. Supported international programs include UNESCO’s Intergovernmental Oceanographic Commission, the United Nations Environment Programme, the World Climate Research Programme, the World Meteorological Organization, and the World Weather Research Programme.
About the system…link
No mention of power consumption in the specs. Though this internal report suggests “dramatically increased power consumption” at the AMES facility when similarly upgraded.
IBM iDataPlex Cluster: Discover Scalable Units 3 & 4
The NASA Center for Computational Sciences (NCCS) expanded its “Discover” high-end computer by integrating a 4,096-core IBM iDataPlex cluster, for a combined performance of 67 teraflops. The NCCS plans to at least double the iDataPlex processor count during 2009. Credit: Photo by NASA Goddard Space Flight Center/Pat Izzo.
Discover
- The Discover system is an assembly of multiple Linux scalable units built upon commodity components. The first scalable unit was installed in the fall of 2006, and the NCCS continues to expand this highly successful computing platform.
Discover derives its name from the NASA adage of “Explore. Discover. Understand.”
Discover System Details
- 49 Racks (compute, storage, switches, and more)
- 111 Tflop/s
- 11,032 Total Cores
- IBM GPFS
- 2.46 PB Storage
- Operating System: SLES
- Job Scheduler: PBS
- Compilers: C, C++, Fortran (Intel and PGI)
Individual Scalable Units
- Manufacturer: Linux Networx/SuperMicro
- 3.33 Tflop/s
- 520 Total Cores
- 2 dual-core processors per node
- 3.2 GHz Intel Xeon Dempsey (2 flop/s per clock)
- Production: 4Q 2006
- Manufacturer: Linux Networx/Dell
- 10.98 Tflop/s
- 1,032 Total Cores
- Dell 1950 Compute Nodes
- 2 dual-core processors per node
- 2.66 GHz Intel Xeon Woodcrest (4 flop/s per clock)
- Interconnect: Infiniband DDR
- Production: 2Q 2007
- Manufacturer: Linux Networx/Dell
- 10.98 Tflop/s
- 1,032 Total Cores
- Dell 1950 Compute Nodes
- 2 dual-core processors per node
- 2.66 GHz Intel Xeon Woodcrest (4 flop/s per clock)
- Interconnect: Infiniband DDR
- Production: 3Q 2007
- Manufacturer: IBM
- 20.64 Tflop/s
- 2,064 Total Cores
- IBM iDataPlex Compute Nodes
- 2 quad-core processors per node
- 2.5 GHz Intel Xeon Harpertown (4 flop/s per clock)
- Interconnect: Infiniband DDR
- Production: 3Q 2008
- Manufacturer: IBM
- 20.64 Tflop/s
- 2,064 Total Cores
- IBM iDataPlex Compute Nodes
- 2 quad-core processors per node
- 2.5 GHz Intel Xeon Harpertown (4 flop/s per clock)
- Interconnect: Infiniband DDR
- Production: 4Q 2008
- Manufacturer: IBM
- 46.23 Tflop/s
- 4,128 Total Cores
- IBM iDataPlex Compute Nodes
- 2 quad-core processors per node
- 2.8 GHz Intel Xeon Nehalem (4 flop/s per clock)
- Interconnect: Infiniband DDR
- Production: 3Q 2009
IBM Test System: Schirra
The High-End Computing Capability Project purchased this 6-teraflop IBM POWER5+ system as part of their effort to evaluate next-generation supercomputing technology, which will eventually replace the Columbia supercomputer, to meet NASA’s future computing needs.
Hyperwall-2 Visualization System
The 128-screen hyperwall-2 system is used to view, analyze, and communicate results from NASA’s high-fidelity modeling and simulation projects, leading to new discoveries.
New high-resolution climate simulations reproduce atmospheric features not previously seen in NASA computer models. Moving from 27-kilometer resolution (top) to 3.5-kilometer resolution (center) yields cloud clusters like those seen in observations from NOAA’s latest GOES satellite (bottom). Credit: NASA/William Putman, Max Suarez; NOAA/Shian-Jiann Lin
A 24-hour simulation run at progressively higher resolutions captures finer and finer details of cloud “vortex streets” moving over Alaska’s Aleutian Islands. A vortex street is a train of alternating clockwise and anticlockwise eddies (swirls) shed in a flow interacting with some structure. Credit: NASA/William Putman, Max Suarez; NOAA/ Shian-Jiann Lin
Goddard Space Flight Center recently added 4,128 processors to its Discover high-end computing system, with another 4,128 processors to follow this fall. The expanded Discover will host NASA’s climate simulations for the Intergovernmental Panel on Climate Change. Credit: NASA/Pat Izzo Remember the day you got a brand-new computer? Applications snapped open, processes that once took minutes finished in seconds, and graphics and animation flowed as smoothly as TV video. But several months and many new applications later, the bloom fell off the rose.
Your lightning-fast computer no longer was fast. You needed more memory and faster processors to handle the gigabytes of new files now embedded in your machine.
Climate scientists can relate.
They, too, need more powerful computers to process the sophisticated computer models used in climate forecasts. Such an expanded capability is now being developed at NASA’s Goddard Space Flight Center in Greenbelt, Md.
High-End Computing System Installed
In August, Goddard added 4,128 new-generation Intel “Nehalem” processors to its Discover high-end computing system. The upgraded Discover will serve as the centerpiece of a new climate simulation capability at Goddard. Discover will host NASA’s modeling contributions to the Intergovernmental Panel on Climate Change (IPCC), the leading scientific organization for assessing climate change, and other national and international climate initiatives.
To further enhance Discover’s capabilities, Goddard will install another 4,128 Nehalem processors in the fall, bringing Discover to 15,160 processors.
“We are the first high-end computing site in the United States to install Nehalem processors dedicated to climate research,” said Phil Webster, chief of Goddard’s Computational and Information Sciences and Technology Office (CISTO). “This new computing system represents a dramatic step forward in performance for climate simulations.”
Well-Suited for Climate Studies
According to CISTO lead architect Dan Duffy, the Nehalem architecture is especially well-suited to climate studies. “Speed is an inherent advantage for solving complex problems, but climate models also require large memory and fast access to memory,” he said. Each processor has 3 gigabytes of memory, among the highest available today. In addition, memory access is three to four times faster than Discover’s previous-generation processors.
In preliminary testing of Discover’s Nehalem processors, NASA climate simulations performed up to twice as fast per processor compared with other nationally recognized high-end computing systems. The new computational capabilities also allowed NASA climate scientists to run high-resolution simulations that reproduced atmospheric features not previously seen in their models.
For instance, “features such as well-defined hurricane eyewalls and convective cloud clusters appeared for the first time,” said William Putman, acting lead of the Advanced Software Technology Group in Goddard’s Software Integration and Visualization Office. “At these cloud-permitting resolutions, the differences are stunning.”
IPCC Simulations
For the IPCC studies, scientists will run both longer-term and shorter-term climate projections using different computer models. A climate model from the Goddard Institute for Space Studies will perform simulations going back a full millennium and forward to 2100. Goddard’s Global Modeling and Assimilation Office will use a climate model for projections of the next 30 years and an atmospheric chemistry-climate model for short-term simulations of chemistry-climate feedbacks. The IPCC will use information from climate simulations such as these in its Fifth Assessment Report, which IPCC expects to publish in 2014.
NASA climate simulation efforts also contribute to the U.S. Global Change Research Program, the U.S. Integrated Earth Observation System, and the U.S. Weather Research Program. Supported international programs include UNESCO’s Intergovernmental Oceanographic Commission, the United Nations Environment Programme, the World Climate Research Programme, the World Meteorological Organization, and the World Weather Research Programme.
So as a test of this new terramachine, why don’t they turn it on, and have it calculate the GISStemp anomaly back to the day that James Hansen invented global warming; that would include of course calculating from basic physics, the actual raw data readings from Hansen’s collection of errant owl boxes, that are on Anthony’s “little list”.
I wouodn’t let them advance to positive times BP, until that can correctly get the CE, and BCE data calculated from Peter Humbug;’s model.