In this video from the DDN booth at SC15, Dr. Erik Deumens of the University of Florida describes why unpredictable and less standard architectures and system configurations are necessary to meet the agility, availability and responsiveness requirements to meet the mission of innovation and exploration. “The University of Florida’s Interdisciplinary Center for Biotechnology Research (ICBR) offers access to cutting-edge technologies designed to enable university faculty, staff and students, as well as research and commercial partners worldwide with the tools and resources needed to advance scientific research.”
This visualization from CSCS in Switzerland shows the world’s smallest integrated switch. “Researchers working under Juerg Leuthold, Professor of Photonics and Communications at ETH Zurich, have created the world’s smallest integrated optical switch. Applying a small voltage causes an atom to relocate, turning the switch on or off. ETH Professor Mathieu Luisier, who participated in this study, simulated the system using Piz Daint Supercomputer. The component operates at the level of individual atoms. “
In this video, Prof. Dr. Satoshi Matsuoka from the Tokyo Institute of Technology describes his role as Program Chair of ISC High Performance 2016. He talks about the transformation of the conference in recent years and admits: “This is one of the most enjoyable conferences I have ever been to.” ISC High Performance is the landmark supercomputing, networking and storage event that attracts HPC enthusiasts from all across the globe. With 3,000 attendees, it is the largest HPC conference and exhibition in Europe. Regionally, the top five countries with the greatest number of ISC conference attendees are Germany, the United States, the United Kingdom, France and China. A growth in participation is projected for 2016, particularly from Asia.
In this video, Roger Goff from DDN describes how the company’s storage solutions have evolved to address the changing demands and requirements of HPC from compute all the way throughout the entire data lifecycle. “Organizations leverage the power of DDN technology and the deep technical expertise of our team to capture, store, process, analyze, collaborate and distribute data, information and content at largest scale in the most efficient, reliable and cost effective manner. Our customers include many of the world’s leading financial services firms and banks, healthcare and life science organizations, manufacturing and energy companies, government and research facilities, and web and cloud service providers.”
“The human microbiome plays a role in processes as diverse as metabolism, immune function, and mental health. Yet despite the importance of this system, scientists are just beginning to uncover which microorganisms reside in and on our bodies and determine what functions they perform. The development of innovative technology and analytical methods has enabled researchers like Dr. Pollard to decode the complex interactions between our human cells and microbial brethren, and infer meaning from the staggering amounts of data 10 trillion organisms create.”
In this video, researchers describe how the Jetstream project at Indiana University. Jetstream is a user-friendly cloud environment designed to give researchers access to interactive computing and data analysis resources on demand, whenever and wherever they want to analyze their data. It will provide a library of virtual machines designed to do discipline specific scientific analysis. Software creators and researchers will also be able to create their own customized virtual machines or their own private computing system within Jetstream.
In this video, engineers move the NERSC Edison Supercomputer from Oakland to Berkeley. The one week long move is condensed into :41 seconds in this time lapse video, shot during the entire process. Edison is a Cray XC30, with a peak performance of 2.57 petaflops/sec, 133,824 compute cores, 357 terabytes of memory, and 7.56 petabytes of disk.
In this video from the HPC in the Cloud Educational Series, Marco Novaes, Solutions Engineer with the Google Cloud Platform team explains how the Broad Institute was able to use Google Pre-Emptible VMs to leverage over 50,000 cores to advance cancer research. “Cancer researchers saw value in a highly-complex genome analysis, but even though they already had powerful processing systems in-house, running the analysis would take months or more. We thought this would be a perfect opportunity to utilize Google Compute Engine’s Preemptible VMs to further their cancer research, which was a natural part of our mission. And now that Preemptible VMs are generally available, we’re excited to tell you about this work.”
“The Intel’s next generation Xeon Phi processor family x200 product (code-name Knights Landing) brings in new memory technology, a high bandwidth on package memory called Multi-Channel DRAM (MCDRAM) in addition to the traditional DDR4. MCDRAM is a high bandwidth (~4x more than DDR4), low capacity (up to 16GB) memory, packaged with the Knights Landing Silicon. MCDRAM can be configured as a third level cache (memory side cache) or as a distinct NUMA node (allocatable memory) or somewhere in between. With the different memory modes by which the system can be booted, it becomes very challenging from a software perspective to understand the best mode suitable for an application.”
In this video, Ruchir Puri, an IBM Fellow at the IBM Thomas J. Watson Research Center talks about building large-scale big data systems and delivering real-time solutions such as using machine learning to predict drug reactions. “There is a need for systems that provide greater speed to insight — for data and analytics workloads to help businesses and organization make sense of the data, to outthink competitors as we usher in a new era of Cognitive Computing.”