University of Alaska Fairbanks
Fairbanks, Alaska
Shusun Li, awarded $25,000
Geophysical Institute, 907-474-7676
Automated Topography Production System Based on Synthetic Aperture
Radar (SAR) Interferometry Techniques
Existing workstation tools developed at the Alaska SAR Facility are
the basis for this two year project to develop a fully automated,
massively parallel processing capability to produce high quality
topographic products from computer compatible signal data (CCSD)
products from the Alaska SAR Facility. The main results of the project
include an optimized computer code for automated generation of digital
terrain elevation data, and accurate digital terrain elevation models
in test sites.
Peter Olsson, awarded $26,500
Geophysical Institute, 907-474-6477
Trial High-Resolution Regional Weather Forecasting Project for Alaska
Relatively little high resolution atmospheric modeling has been done
in high latitudes. The unique ìparameter spaceî found in
Alaska -- very stable boundary-layer stratification, multiple thin
cloud layers, dramatic topographic variations, and extremely low
surface temperatures -- pose several problems not encountered in the
midlatitude environment. The thrust of this project is to make
modifications to existing computer models using the CRAY T3E system and
verify model simulations for Alaskan weather against observations, a
task that researchers in the Geophysical Institute are uniquely
positioned to do.
Mark W. Govett, awarded $15,500
Forecast Systems Laboratory
Boulder, Colorado
303-497-6278
Developing an Automated Meteorological Forecast System on the CRAY
T3E Using the RAMS Model
Tasked with developing and testing high resolution Numerical Weather
Prediction (NWP) forecast models on massively parallel processing
systems for technology transfer to the National Weather Service (NWS),
NOAAís Forecast Systems Laboratory (FSL) has developed the
Scaleable Modeling System (SMS) to improve portability and performance
of parallel codes and to reduce development costs. This project will
focus on the Regional Atmospheric Modeling System (RAMS) developed at
Colorado State University for simulating and forecasting meteorological
phenomena. The team will port the SMS version of the RAMS model to the
ARSC CRAY T3E supercomputer in support of research endeavors at the
University of Alaska Fairbanks to set up an automated forecast system
for the Alaska region.
Andrey Proshutinsky, awarded $18,000
Institute of Marine Science, 907-474-7834
High Performance Computer Code for a Coupled Ice-Ocean Models
The Arctic Ocean and its adjacent seas, and the Bering and Okhotsk
Seas are the major regions of scientific research to benefit from the
development of this coupled ice-ocean model with advanced physics. As a
major scientific tool to investigate seasonal variability of ice and
water dynamics and thermodynamics, it also models the features of the
hydrographic regime at different spatial and temporal scales.
University of Montana
Missoula, Montana
Donald Morton, Jr., awarded $18,333
Department of Mathematical Science, 406-243-2830
CRAY T3E Coupling and Optimization of Parallel Hydrologic and
Thermal Models for Arctic Regions
Hydrologic and thermal processes play fundamental roles in the global
climate, but are not well represented in current general circulation
modes (GCMís). This project will integrate spatially distributed
hydrologic and thermal models for arctic regions and provide
evaporation and condensation parameters to GCMís that are
necessary for determining factors such as cloud cover. The integrated
model will realistically simulate the positive and negative feedback
interactions between the interdependent hydrologic and thermal systems.
Naval Postgraduate School
Monterey, California
Wieslaw Maslowski, awarded $30,000
Department of Oceanography, 408-656-3267
High Performance Modeling of the Arctic Ocean and Sea Ice in
Turbulent Equilibrium
Using the capabilities of the CRAY T3E system at ARSC, this project
will complete the design and optimization of an eddy resolving, coupled
Arctic Ocean and sea ice model in order to conduct century-long
integrations. Results obtained to date from a 120 year coupled model
simulations have already provided an unprecedented wealth of new
information regarding both large- and regional-scale sea ice and ocean
circulations. Early tests on the ARSC CRAY T3E system indicate that
these codes can already attain three-fold faster speeds than on the
older CRAY T3D supercomputer. The major improvements proposed in this
project will enable the code to be portable and scaleable for future
generations of SGI/Cray machines.
No such file (/authors/PublicInfoEd).
Arctic Region Supercomputing Center
PO Box 756020, Fairbanks, AK 99775 | voice: 907-450.8600 |
email:
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