Draft2:Scientific Discovery through Advanced Computing

From Saintapedia
Revision as of 21:28, 2 December 2024 by Tom (talk | contribs) (1 revision imported)
(diff) ← Older revision | Latest revision (diff) | Newer revision → (diff)
Jump to navigation Jump to search
File:SciDAC portfolio.jpg
SciDAC portfolio

Template:Notable articlesThe Scientific Discovery Through Advanced Computing (SciDAC) program was created to bring together many of the nation's top researchers to develop new computational methods for tackling some of the most challenging scientific problems.

It initiated in 2001 as a partnership involving all of the Office of Science (SC) program offices to dramatically accelerate progress in scientific computing that delivers breakthrough scientific results through partnerships comprised of applied mathematicians, computer scientists, and scientists from other disciplines.

The SciDAC program is recognized as the leader in accelerating the use of high-performance computing to advance the state of knowledge in science applications.

Official Site - scidac.gov

Mission

The mission of the SciDAC-4 institutes is to provide intellectual resources in

  • applied mathematics and computer science
  • expertise in algorithms and methods and
  • scientific software tools

to advance scientific discovery through modeling and simulation in areas of strategic importance to the Department of Energy and the Office of Science (SC).

Participants

Institutes

File:RAPIDS2 Intro overview.pdf
RAPIDS2 Intro overview

There are currently 2 SciDAC institutes with 24 participating institutions and a total annual funding of $12 million.

Partnerships

30 SciDAC partnership projects are co-funded by Advanced Scientific Computing Research (ASCR) with the Program Offices in the

Universities

Laboratories

Industry

  • General Atomics, San Diego, CA
  • Kitware Inc., Clifton Park, NY
  • Tech-X Corporation, Boulder, CO
  • The HDF Group, Champaign, IL

History

The SciDAC program was re-competed in 2006 and in 2011, and the partnerships were extended to include the DOE National Nuclear Security Administration (NNSA). Through partnerships with ASCR-funded mathematicians and computer scientists, SciDAC applications pursued computational solutions to challenging problems in climate science, fusion research, high energy physics, nuclear physics, astrophysics, material science, chemistry, particle accelerators, biology and the reactive subsurface flow of contaminants through groundwater.

SciDAC was re-competed a fourth time in 2017 to enable scientific breakthroughs on pre-exascale computing architectures. The partnerships now include Office of Nuclear Energy in addition to all 6 SC programs.

SciDAC projects pursue computational solutions to challenging problems in

It ensure that progress at the frontiers of science is enhanced by advances in computational technology, most pressingly, the emergence of the hybrid and many-core architectures and machine learning techniques.

Portfolios

Historical information on the previous portfolios can be found on the SciDAC website.

Technology for Advanced Scientific Component Software

The SciDAC Center for Technology for Advanced Scientific Component Software (TASCS) is lead by Oak Ridge National Laboratory.

Focus Areas and Research Objectives:

  • CCA Environment – Supporting and improving the foundation of the CCA environment – Coordinator: Tom Epperly, LLNL
  • CCA Toolkit – Making it easier to create components, and making available a suite of real, useful components – Coordinator: Rob Armstrong, SNL
  • Component Technology Initiatives – How can we exploit the component environment to provide computational scientists with better ways to develop their software? – Coordinator: Lois McInnes, ANL
  • User Outreach & Application Support – Broaden awareness and adoption of component technology and the CCA – Coordinator: David Bernholdt, ORNL

http://tascs-scidac.org and tascs-leads@cca-forum.org

Computational Facility for Reacting Flow Science

Computational Facility for Reacting Flow Science (CFRFS) is a toolkit to perform simulations of combustion and shock hydrodynamics

Framework Application for Core-Edge Transport Simulations

Framework Application for Core-Edge Transport Simulations (FACETS) is integrated modeling of plasma core, edge, and wall: prototype for Fusion Simulation Project (FSP).

Contact

Related

External links

Template:SC