Engineering Dynamics Site Map
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Simulation of explosive detonation in an urban center
surrounded by four rigid buildings |
For more than 20 years, Southwest Research Institute
(SwRI) has been developing, enhancing, and applying advanced computational
fluid dynamics (CFD) modeling and simulation tools to solve clients'
problems. In particular, the staff uses these computational tools to solve
problems related to the operational conditions and states of large-scale
engineered and natural systems.
CFD Capabilities
SwRI maintains and utilizes a suite of CFD software codes and computer resources
to support modeling and simulation projects of widely different sizes and scopes
to solve a broad spectrum of large-scale system problems such as:
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Global circulation simulations for Earth (top) and Mars (bottom); contours
display temperature fields at 300 km for Earth and 49 km for Mars |
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Large-scale system design and analysis
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Explosive hazard analysis in and around complex structures
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Hydraulic transient analysis in complex pipeline networks
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External aerodynamic analysis for complete structures
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Atmospheric dynamics for Earth and Mars
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Airflow distribution in multiroom buildings and hangars
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Chemical hazard and biohazard assessment in multiroom buildings and urban
environments
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Fluid-structure interaction with six-degrees-of-freedom dynamics
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Simulation of fate and transport in atmospheric and regional subsurface
environments
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Simulation of airflow distribution in a paint hangar showing airflow streamline
ribbons (top) and contours of velocity magnitude (bottom) |
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Aerodynamic simulation of a high-speed train
showing contours of surface pressure |
The Engineering Dynamics Department staff have the expertise to develop,
enhance, and apply CFD codes to existing or new classes of problems that clients
may need to address and can accomplish this within the client's cost and
schedule constraints.
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Simulation of explosive detonation in a hardened structure showing results for
the actual structure (left) and results for an experimental facility with a
structure designed to collect biological samples (right).
Video:
Windows Media or
QuickTime. |
An integrated approach using physical experiments, numerical simulations, and
analytical methods is routinely employed to investigate and solve complex
nonlinear fluid flow and heat transfer problems.
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Curvilinear grid system used
in the six-degrees-of-freedom
simulation of twin rockets |
SwRI is a member organization of Internet2.
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Software |
Source |
NSC Codes |
SwRI |
FLOW-3D |
Flow Science |
Overflow |
NASA |
CTH |
Sandia |
Multiflo |
SwRI |
ASPEN |
SwRI |
HYTTAP |
SwRI |
PHAT-LPS |
SwRI |
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Hardware |
Capabilities |
Linux Cluster 1 |
32 nodes, AMD Athlon XP/MP 1.6 GHz, 32 Gb RAM, 2.8 Tb Disk Farm |
Linux Cluster 2 |
64 nodes, AMD Opteron 64 1.4 GHz, 128 Gb RAM, 2.3 Tb Disk Farm |
Linux Cluster 3 |
32 nodes, AMD Opteron 64 1.4 GHz, 64 Gb RAM, 1.6 Tb Disk Farm |
HP Workstations |
180 to 450 MHz, 1 to 4 Gb RAM, 1 Tb Disk Farm |
PC Workstations |
2.4 to 3.2 GHz, 1 Gb RAM, 60 Gb |
For more information about
system-level computational fluid dynamics capabilities at SwRI or how you can contract with SwRI,
please contact
Christopher
Freitas, Ph.D., P.E. at
cfreitas@swri.org or (210) 522-2137.
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Contact Information |
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Christopher Freitas, Ph.D., P.E.
System-Level CFD
(210) 522-2137
cfreitas@swri.org |
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Related Terminology |
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computational fluid dynamics
CFD
explosive hazard analysis
vehicle aerodynamics
hydraulic transient analysis
global circulation modeling
space weather
fluid-structure interaction
subsurface transport modeling
uncertainty analysis
numerical methods
algorithm development
parallel computing methods
nonlinear modeling and simulation
homeland security analysis |
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Related Information |
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Printable PDF |
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Southwest Research Institute® (SwRI®), headquartered
in San Antonio, Texas, is a multidisciplinary, independent, nonprofit, applied
engineering and physical sciences research and development organization with 11
technical divisions.
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