The human body is host to 100 trillion microorganisms, ten times the number of cells in the human body, and these microbes contain 100 times the number of DNA genes that our human DNA does. UC San Diego CSE Professor, Larry Smarr, discusses how data from these trillions of DNA bases are fed into supercomputers, resulting in innovative scalable visualization systems that allow for the examination of patterns that can be used to suggest new hypotheses for clinical application.
In this Purematter video, SGI CEO Jorge Titinger discusses the role that his experiences as a professional soccer player has had in both his professional development and his company’s success. He also provides insights into how SGI is leveraging High Performance Computing to scale innovation faster than ever before.
Simulation of physical processes such as the waves in an ocean or the wake behind a boat, although similar in a number of ways, require different approaches. With current systems designed with many parallel computational units, it is important to take advantage of the range of architectural features. Using HYDRO2D, the performance of the code can be examined and improved by taking advantage of a range of system features.
Demands by users that are running applications in the scientific, technical, financial or research areas can easily outstrip the capabilities of in-house clusters of servers. IT departments have to anticipate compute and storage needs for their most demanding users, which can lead to extra spending on both CAPEX and OPEX once the workload changes.
In this slidecast, Bill Lee and Rupert Dance from the InfiniBand Trade Association describe the new IBTA Volume 1 Specification Release. “The new release defines new capabilities that will enable computer systems to keep up with the requirements for increased scalability and bandwidth, along with high computing efficiency and high availability for both high performance computing and commercial enterprise data centers.”