By analyzing such parameters as the force applied by key presses and the time interval between them, a new self-powered non-mechanical intelligent keyboard could provide a stronger layer of security for computer users. The self-powered device generates electricity when a user’s fingertips contact the multi-layer plastic materials that make up the device.
The OpenPOWER Foundation, an open development community dedicated to...
The First Annual OpenPOWER Summit will take place at the San Jose Convention Center. It will be...
With a new look at daily data from the NOAA/NASA Suomi National Polar-orbiting Partnership...
The Intelligence Advanced Research Projects Activity (IARPA), within the Office of the Director of National Intelligence (ODNI), has embarked on a multi-year research effort to develop a superconducting computer. If successful, technology developed under the Cryogenic Computer Complexity (C3) program will pave the way to a new generation of superconducting supercomputers that are far more energy efficient.
The new L-CSC supercomputer at the GSI Helmholtz Centre for Heavy Ion Research is ranked as the world's most energy-efficient supercomputer. The new system reached first place on the "Green500" list published on November 20, 2014, comparing the energy efficiency of the fastest supercomputers around the world. With a computing power of 5.27 gigaflops per watt, the L-CSC has also set a new world record for energy efficiency.
A new supercomputer, L-CSC from the GSI Helmholtz Center, emerged as the most energy-efficient supercomputer in the world, according to the 16th edition of the twice-yearly Green500 list of the world’s most energy-efficient supercomputers. The cluster was the first and only supercomputer on the list to surpass 5 gigaflops/watt. It was powered by Intel Ivy Bridge CPUs and a FDR Infiniband network and accelerated by AMD FirePro S9150 GPUs.
Iceotope's PetaGen liquid cooling system is designed for High Performance Computing (HPC) and suitable for Supercomputing and data center facilities. The system uses minimal energy resources, has zero dependence on clean water, streamlines needlessly bloated and expensive data center facilities, and improves IT performance.
U.S. Secretary of Energy Ernest Moniz announced two new high performance computing (HPC) awards to put the nation on a fast-track to next generation exascale computing, which will help to advance U.S. leadership in scientific research and promote America’s economic and national security.
To help moderate the energy needs of increasingly power-hungry supercomputers, researchers at Sandia National Laboratories have released an application programming interface (API) with the goal of standardizing measurement and control of power- and energy-relevant features for HPC systems. The High Performance Computing — Power API specification, still open to collaborators for future development and is vendor-neutral.
Findings demonstrate how glass can be manipulated to create a material that will enable computers to transfer information using light. This development could significantly increase computer processing speeds and power in the future. The findings show that it’s possible to change the electronic properties of amorphous chalcogenides, a glass material integral to data technologies such as CDs and DVDs.
Scientists from the Department of Energy's SLAC National Accelerator Laboratory and the University of California, Los Angeles have shown that a promising technique for accelerating electrons on waves of plasma is efficient enough to power a new generation of shorter, more economical accelerators. This could greatly expand their use in areas such as medicine, national security, industry and high-energy physics research.
As transistors get smaller, they also grow less reliable. Increasing their operating voltage can help, but that means a corresponding increase in power consumption. With information technology consuming a steadily growing fraction of the world’s energy supplies, some researchers and hardware manufacturers are exploring the possibility of simply letting chips botch the occasional computation.
More than 2.8 megaliters of water has been saved in just under a year using groundwater to cool the Pawsey Centre supercomputer in Perth.To make that happen, scientists have undertaken stringent tests to ensure that returning heated water to the Mullalloo aquifer has no adverse effects.
Intel and Switch SUPERNAP have partnered to bring Cherry Creek, one of the world’s most powerful supercomputers that’s liquid cooled by CoolIT Systems to the University Nevada Las Vegas (UNLV).
Where the river meets the sea, there is the potential to harness a significant amount of renewable energy, according to a team of mechanical engineers at MIT. The researchers evaluated an emerging method of power generation called pressure retarded osmosis, in which two streams of different salinity are mixed to produce energy. In principle, a PRO system would take in river water and seawater on either side of a semi-permeable membrane.
Igor Markov reviews limiting factors in the development of computing systems to help determine what is achievable, identifying loose limits and viable opportunities for advancements through the use of emerging technologies. He summarizes and examines limitations in the areas of manufacturing and engineering, design and validation, power and heat, time and space, as well as information and computational complexity.
Scientists from IBM have unveiled the first neurosynaptic computer chip to achieve an unprecedented scale of one million programmable neurons, 256 million programmable synapses and 46 billion synaptic operations per second per watt. At 5.4 billion transistors, this fully functional and production-scale chip is currently one of the largest CMOS chips ever built, yet, while running at biological real time, it consumes a minuscule 70mW.
The solar panels that Idaho inventor Scott Brusaw has built aren't meant for rooftops. They are meant for roads, driveways, parking lots, bike trails and, eventually, highways. Brusaw, an electrical engineer, says the hexagon-shaped panels can withstand the wear and tear that comes from inclement weather and vehicles, big and small, to generate electricity.
CoolIT Systems is a Bronze Sponsor at International Supercomputing Conference 2014 in Leipzig, Germany. This level of commitment to the event will allow CoolIT ample opportunity to showcase their liquid cooling expertise, experience and unique data center solutions for HPC, cloud and enterprise markets.
An energy efficient supercomputer with warm water. How cool is that? Enlightenment has long been the ultimate pursuit of artists, philosophers, scientists, theologians and other sentient minds. Whether it is delivering the proof to support their theses, or to investigate a perplexing problem before them, they have poured a vast amount of energy into the situation. Energy has now become the problem.
Researchers at UCLA have created a nanoscale magnetic component for computer memory chips that could significantly improve their energy efficiency and scalability. The design brings a new and highly sought-after type of magnetic memory one step closer to being used in computers, mobile electronics such as smart phones and tablets, as well as large computing systems for big data.
Imagine being able to carry all the juice you needed to power your MP3 player, smartphone and electric car in the fabric of your jacket? Sounds like science fiction, but it may become a reality thanks to breakthrough technology developed at a University of Central Florida research lab.
Natalie Bates chairs the Energy Efficient High Performance Computing Working Group (EE HPC WG). The purpose of the EE HPC WG is to drive implementation of energy conservation measures and energy efficient design in HPC. At ISC’14, Bates will chair the session titled Breaking Paradigms to Meet the Power Challenges...
Costas Bekas is managing the Foundations of Cognitive Computing group at IBM Research-Zurich. He received his B. Eng., Msc and PhD, all from the Computer Engineering & Informatics Department, University of Patras, Greece, in 1998, 2001 and 2003 respectively. Between 2003-2005, he worked as a postdoctoral associate with prof. Yousef Saad at the Computer Science & Engineering Department, University of Minnesota
Matthias S. Müller has been University Professor of High Performance Computing at the RWTH Aachen Faculty of Mathematics, Computer Science, and Natural Sciences since January 2013. His research focuses are the automatic error analysis of parallel programs, parallel programming models, performance analysis, and energy efficiency.
In Stephen Leacock’s nonsense story, “Gertrude theGoverness,” the hero, in extremis, “… flung himself upon his horse and rode madly off in all directions.” A fitting description for the state of power and cooling in today’s high performance computing industry. Researchers and engineers at companies, government agencies and educational institutions worldwide are exploring a wide variety of solutions to problems posed by petascale systems ...
Ahhh! There is nothing like a tall, cool drink of water when thirsty. Not surprisingly, computers also prefer liquid refreshment as opposed to air cooling when hot. The choice for the technologist resides in when to make the move to liquid cooling and in what type of liquid cooling system is most appropriate.
Fifteen years ago, power and cooling didn’t make the top 10 list of issues HPC data centers were facing. That changed quickly with the rise to dominance of clusters and other highly parallel computer architectures, starting in the period 2000 to 2001 and escalating from there. In IDC’s worldwide surveys since 2006, power and cooling have consistently ranked as the number two concern for HPC data centers
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