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Search indexed NASA NTRS and DOE OSTI research on propulsion, heat transfer, battery materials and energy systems. Follow report and document links to the original sources.
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RaISE: A Framework to Characterize Surrogate Models in Scientific Computing.
Abstract not provided.
Scientific Computing [Slides]
Presentation by the Los Alamos National Laboratory Radiation Transport Applications Group (XTD-RTA) for the CONNECT2 Undergraduate Research Experience Seminar at the University of Texas, San Antonio.
QSCOUT: Quantum Scientific Computing Open User Testbed
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Quantum Scientific Computing Open User Testbed
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The Quantum Scientific Computing Open User Testbed (QSCOUT): a “white-box” trapped ion system available to researchers
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QSCOUT: Quantum Scientific Computing Open User Testbed
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Energy Efficient Probabilistic Scientific Computing on Neuromorphic Hardware
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Embracing Complexity: Cognitive Scientific Computing
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Initial explorations of ARM processors for scientific computing
Abstract Not Provided
Scientific Computing at Los Alamos National Laboratory
Abstract Not Provided
Bridging Cloud and Scientific Computing
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XVis: Visualization for the Extreme-Scale Scientific-Computation Ecosystem (Poster for ASCR PI Meeting 2015).
Abstract not provided.
High-Data-Rate, Short-Range Optical Links for Advanced Scientific Computing
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Making Technological Timelines: Anticipatory Repair and Testing in High Performance Scientific Computing
Think of some examples of repair in everyday life. Maybe you had a car accident and took your car to the body shop. Maybe the head came off your child’s doll and you had to glue it back on. Maybe the handle of your shovel cracked and you wrapped the cracked area with duct tape to hold it together. These are examples of what could be called reactive repair, where an unexpected accident initiates a sequence of action and decision-making that ends in repair. In these cases, most of the thinking and planning surrounding repair takes place after a breakdown has been identified. This type of repair is often taken to be distinct from deliberate design, as it occurs within the context of technology that is already in operation, often has an improvisational character, and may be performed by end users or technicians rather than credentialed experts. But does repair always have to be reactive? And if not, what does this tell us about the distinction between design and repair, and their respective roles in shaping technological change? The short answer is that repair, like design, can play a dynamic and forward-looking role in shaping technological trajectories – not only stabilizing existing systems, but anticipating change and generating new technological futures.
XVis: Visualization for the Extreme-Scale Scientific-Computation Ecosystem (PI Meeting Slides 2017).
Abstract not provided.