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Accelerating Scientific Discovery Through Computation and Visualization.


pdf icon Accelerating Scientific Discovery Through Computation and Visualization. (4369 K)
Sims, J. S.; Hagedorn, J. G.; Ketcham, P. M.; Satterfield, S. G.; Griffin, T. J.; George, W. L.; Fowler, H. A.; Ende, B. A.; Hung, H. K.; Bohn, R. B.; Koontz, J. E.; Martys, N. S.; Bouldin, C. E.; Warren, J. A.; Feder, D. L.; Clark, C. W.; Filla, B. J.; Devaney, J. E.

NISTIR 6709; 25 p. January 22, 2001.

Journal of Research of the National Institute of Standards and Technology, Vol. 105, No. 6, 875-894, November/December 2000.

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For more information contact: pdf version available at: http://www.nist.gov/jres

Keywords:

computation; discovery science; distributed processing; immersive environments; IMPI; interoperable MPI; message passing interface; MPI; parallel processing; scientific visualization

Abstract:

The rate of scientific discovery can be accelerated through computation and visualization. This acceleration results from the synergy of expertise, computing tools, and hardware for enabling high-performance computation, information science, and visualization that is provided by a team of computation and visualization scientists collaborating in a peer-to-peer effort with the research scientists. In the context of this discussion, high performance refers to capabilities beyond the current state of the art in desktop computing. To be effective in this arena, a team comprising a critical mass of talent, parrallel computing techniques, visualization algorithms, advanced visualization hardware, and a recurring investment is required to stay beyond the desktop capabilities. This article describes, through examples, how the Scientific Applications and Visualization Group (SAVG) at NIST has utilized high performance parallel computing and visualization to accelerate condensate modeling, (2) fluid flow in porous materials and in other complex geometries, (3) flows in suspensions, (4) x-ray absorption, (5) dielectric breakdown modeling, and (6) dendritic growth in alloys.