Today One Stop Systems introduced an all-flash array Data Storage Unit. The Data Storage Unit is available in both a rugged version and a commercial version. The rugged version as deployed in a military aircraft is an all-flash array capable of supplying 200TB of usable PCIe NVMe flash and a DOD approved flash file system that has been a part of numerous government programs. “One Stop Systems’ expertise in PCIe expansion has helped evolve our flash products from purely expansion systems to powerful all-flash arrays,” said Steve Cooper, OSS CEO. “All-flash arrays have increasingly replaced traditional spinning disks in environments ranging from mobile devices to data centers and defense vehicles. Both the commercial and the rugged versions provide a new level of performance for applications such as real-time HPC analytics, big data and high speed data recording.”
In this video, Robert Brunner from NCSA presents: Blue Waters System Overview. “Blue Waters is one of the most powerful supercomputers in the world. Scientists and engineers across the country use the computing and data power of Blue Waters to tackle a wide range of challenging problems, from predicting the behavior of complex biological systems to simulating the evolution of the cosmos.”
“Increased system size and a greater reliance on utilizing system parallelism to achieve computational needs, requires innovative system architectures to meet the simulation challenges. As a step towards a new network class of co-processors intelligent network devices, which manipulate data traversing the data-center network, SHARP technology designed to offload collective operation processing to the network. This tutorial will provide an overview of SHARP technology, integration with MPI, SHARP software components and live example of running MPI collectives.”
In this week’s Sponsored Post, Katie Garrison, of One Stop Systems explains how GPUs and Flash solutions are used in radar simulation and anti-submarine warfare applications. “High-performance compute and flash solutions are not just used in the lab anymore. Government agencies, particularly the military, are using GPUs and flash for complex applications such as radar simulation, anti-submarine warfare and other areas of defense that require intensive parallel processing and large amounts of data recording.”
Missouri-based Advanced Clustering Technologies is helping customers solve challenges by integrating NVIDIA Tesla P100 accelerators into its line of high performance computing clusters. Advanced Clustering Technologies builds custom, turn-key HPC clusters that are used for a wide range of workloads including analytics, deep learning, life sciences, engineering simulation and modeling, climate and weather study, energy exploration, and improving manufacturing processes. “NVIDIA-enabled GPU clusters are proving very effective for our customers in academia, research and industry,” said Jim Paugh, Director of Sales at Advanced Clustering. “The Tesla P100 is a giant step forward in accelerating scientific research, which leads to breakthroughs in a wide variety of disciplines.”
Today UK-based Hammer PLC announced that it will be a distributer of Spectra Logic storage technology in Europe. “This is an excellent opportunity to increase our high-performance computing offering to our partners and customers,” said Jason Beeson, Hammer’s Commercial Director. “By adding Spectra Logic’s bespoke data workflow storage solutions we can reach a whole new genre of highly data-dependent users who are seeking a complete data workflow, from input and day-to-day use right through to deep storage and archiving.”
In this video from KAUST, Steve Scott from at Cray explains where supercomputing is going and why there is a never-ending demand for faster and faster computers. Responsible for guiding Cray’s long term product roadmap in high-performance computing, storage and data analytics, Mr. Scott is chief architect of several generations of systems and interconnects at Cray.
In this podcast, the Radio Free HPC team hosts Dan’s daughter Elizabeth. How did Dan get this way? We’re on a mission to find out even as Elizabeth complains of the early onset of Curmudgeon’s Syndrome. After that, we take a look at the Tsubame3.0 supercomputer coming to Tokyo Tech.
When the DOE’s pre-exascale supercomputers come online soon, all three will be running an optimized version of the XGC dynamic fusion code. Developed by a team at the DOE’s Princeton Plasma Physics Laboratory (PPPL), the XGC code was one of only three codes out of more than 30 science and engineering programs selected to participate in Early Science programs on all three new supercomputers, which will serve as forerunners for even more powerful exascale machines that are to begin operating in the United States in the early 2020s.
In this fascinating talk, Cockcroft describes how hardware networking has reshaped how services like Machine Learning are being developed rapidly in the cloud with AWS Lamda. “We’ve seen the same service oriented architecture principles track advancements in technology from the coarse grain services of SOA a decade ago, through microservices that are usually scoped to a more fine grain single area of responsibility, and now functions as a service, serverless architectures where each function is a separately deployed and invoked unit.”