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3rd International ACES
Meeting
Maui, Hawaii
May 6-10, 2002
Sponsored by NASA and NSF
SESWG
Living on a Restless Planet
Solid Earth Science Working Group
Report
NASA Headquarters
3 April 2002
SESWG
The SESWG Charter
• To guide the science community in the
development of a recommended long-term
vision and strategy for solid-Earth science at
NASA
Chair: Sean C. Solomon
Victor R. Baker
Jeremy Bloxham
Douglas Burbank
Ben Chao
Alan Chave
Andrea Donnellan
Alan Gillespie
Thomas A. Herring
Raymond Jeanloz
Bernard Minster
Walter C. Pitman, III
Eric Rignot
Mark Simons
Byron Tapley
Donald Turcotte
Mary Lou C. Zoback
John LaBrecque (ex-officio)
Charles Elachi (ex-officio)
Diane Evans (ex-officio)
Web Page: http://solidearth.jpl.nasa.gov
http://gaia.hq.nasa.gov/seswg/index.cfm
E-mail:
[email protected]
SESWG
Six Key Questions
1.
2.
3.
What is the nature of deformation at
plate boundaries and what are the
implications for earthquake
hazards?
4.
How do magmatic systems evolve
and under what conditions do
volcanoes erupt?
5.
What are the dynamics of the mantle
and crust and how does the Earth’s
surface respond?
6.
What are the dynamics of the Earth’s
magnetic field and its interactions
with the Earth system?
How do tectonics and climate
interact to shape the Earth’s surface
and create natural hazards?
What are the interactions among ice
masses, oceans, and the solid Earth
and their implications for sea level
change?
http://solidearth.jpl.nasa.gov
Earth Science Enterprise
Computational Technology
Workshop
April 30 – May 2, 2002
Chairs:
Andrea Donnellan, JPL
John Ries (UT/CSR)
John Rundle (U. California, Davis)
Computational Environment
~100 model codes
with parallel scaled
efficiency of 50%
~104 PetaFLOPs
throughput per
subfield per year
Capability
~100 TeraFLOPs
sustained capability
per model
Access to mixture of platforms low cost
clusters (20-100) to supercomputers with
massive memory and thousands of
processors
~106 volume
elements rendering
in real time
100’s GigaFLOPs
40 GB RAM
1 Gb/s network bandwidth
2003 2004 2005 2006 2007 2008 2009 2010
Timeline
Problem Solving Environment Project
Capability
Integrated visualization
service with volumetric
rendering
Extend PSE to Include
• 20 users collaboratory with shared windows
• Seamless access to high-performance computers
linking remote processes over Gb data channels.
Plug and play composing of
sequential programs from
algorithmic modules
• Fully functional PSE
used to develop
models for building
blocks for simulations.
• Program-to-program
communication in
milliseconds using
staging, streaming,
and advanced cache
replication
• Integrated with SERVO
• Plug and play
composing of parallel
programs from
algorithmic modules
Prototype PSE front end
(portal) integrating 10
local and remote services
Isolated
platform
dependent
code fragments
2003 2004 2005 2006 2007 2008 2009 2010
Timeline