45th AIAA Aerospace Sciences Meeting and Exhibit
45th AIAA Aerospace Sciences Meeting and Exhibit
45th AIAA Aerospace Sciences Meeting and Exhibit
You also want an ePaper? Increase the reach of your titles
YUMPU automatically turns print PDFs into web optimized ePapers that Google loves.
Monday Afternoon / 08 January 2007<br />
Session 57-TP-5 Thermal Protection Systems <strong>and</strong> Ablation Ruby 1<br />
Chaired by: J. DEC <strong>and</strong> K. WURSTER, NASA Langley Research Center, Hampton, VA<br />
1330<br />
<strong>AIAA</strong>-2007-0411<br />
A Simplified Approach<br />
for the Rapid Generation<br />
of Transient Heat-<br />
Shield Environments<br />
K. Wurster, NASA<br />
Langley Research<br />
Center, Hampton, VA<br />
1400<br />
<strong>AIAA</strong>-2007-0413<br />
Orbiter Gap Filler<br />
Bending Model for Re-<br />
Entry<br />
C. Campbell, NASA<br />
Johnson Space Center,<br />
Houston , TX<br />
Monday Afternoon / 08 January 2007<br />
Session 58-WE-2 Wake Modeling McKinley<br />
Monday Afternoon / 08 January 2007<br />
1430<br />
<strong>AIAA</strong>-2007-0414<br />
Numerical Attempt for<br />
Reproducing the<br />
Surface Recession Data<br />
of Galileo Probe<br />
S. Matsuyama, Japan<br />
<strong>Aerospace</strong> Exploration<br />
Agency, Chofu, Japan<br />
Chaired by: S. SCHRECK, National Renewable Energy Laboratory, Golden, CO<br />
1330<br />
<strong>AIAA</strong>-2007-0420<br />
Tower Shadow<br />
Simulation with<br />
Helicoidal Vortex Model<br />
J. Chattot, University of<br />
California Davis, Davis,<br />
CA<br />
1400<br />
<strong>AIAA</strong>-2007-0421<br />
Dynamic Prescribed<br />
Vortex Wake Model for<br />
AeroDyn<br />
H. Currin, Oregon<br />
Institute of Technology,<br />
Klamath Falls, OR<br />
1430<br />
<strong>AIAA</strong>-2007-0422<br />
The Inverse Vortex<br />
Wake Model: A<br />
Measurement Analysis<br />
Tool<br />
W. Haans, Delft<br />
University of<br />
Technology, Delft, The<br />
Netherl<strong>and</strong>s<br />
1500<br />
<strong>AIAA</strong>-2007-0415<br />
Experimental <strong>and</strong><br />
Numerical Study of<br />
Thermal Response of<br />
Ablator in an Arc- Jet<br />
Facility<br />
M. Mizuno, Japan<br />
<strong>Aerospace</strong> Exploration<br />
Agency, Tokyo, Japan<br />
1500<br />
<strong>AIAA</strong>-2007-0423<br />
Experimental <strong>and</strong><br />
Numerical Survey in the<br />
Wake of a Wind Turbine<br />
F. Massouh, ENSAM,<br />
Paris, France<br />
1530<br />
<strong>AIAA</strong>-2007-0417<br />
Thermal<br />
Characterization of<br />
Emisshield<br />
B. Olson, University of<br />
Oklahoma, Norman, OK<br />
1530<br />
<strong>AIAA</strong>-2007-0424<br />
Airfoil models in the<br />
actuator line code<br />
assessed with nearwake<br />
measurements on<br />
a yawed rotor<br />
W. Haans, Delft<br />
University of<br />
Technology, Delft, The<br />
Netherl<strong>and</strong>s<br />
1600<br />
<strong>AIAA</strong>-2007-0418<br />
Experimental Studies on<br />
the Effect of Ply<br />
Orientation on the<br />
Thermal Performance of<br />
Silica Phenolic Ablative<br />
Material<br />
R. S.Pugazenthi, Indian<br />
Space Research<br />
Organisation,<br />
Triv<strong>and</strong>rum, India<br />
1600<br />
<strong>AIAA</strong>-2007-0425<br />
Wind Turbine Rotor-<br />
Tower Interaction Using<br />
an Incompressible<br />
Overset Grid Method<br />
F. Zahle, Risø National<br />
Laboratory, Roskilde,<br />
Denmark<br />
Session 59-WIG/PDL-2 Plasma I Sierra 1<br />
Chaired by: V. BYCHKOV, Moscow State University, Moscow, Russia, <strong>and</strong> B. GANGULY, U.S. Air Force Research Laboratory, Wright-Patterson AFB, OH<br />
1330<br />
<strong>AIAA</strong>-2007-0427<br />
Microwave Discharges:<br />
Fundamentals <strong>and</strong><br />
Applications<br />
V. Shibkov, Moscow<br />
State University,<br />
Moscow, Russia<br />
1400<br />
<strong>AIAA</strong>-2007-0428<br />
Microwave Gas-<br />
Discharge Source<br />
Based on the "Plasma<br />
Resonance"<br />
Phenomenon<br />
I. Kossyi, Prokhorov<br />
General Physics<br />
Institute of RAS,<br />
Moscow, Russia<br />
1430<br />
1500<br />
<strong>AIAA</strong>-2007-0429 <strong>AIAA</strong>-2007-0430<br />
Microwave Torch as a Surface Microwave<br />
Tool for an Airflow Discharge in<br />
Chemical Transformation Quasi–Optical Wave<br />
Beam<br />
I. Kossyi, Moscow State<br />
University, Moscow,<br />
Russia<br />
I. Esakov, Russian<br />
Academy of <strong>Sciences</strong>,<br />
Moscow, Russia<br />
1530<br />
<strong>AIAA</strong>-2007-0431<br />
Various Types of<br />
Initiators for Attached<br />
Undercritical MW<br />
Discharge Ignition<br />
K. Khodataev, MRTI,<br />
Moscow, Russia<br />
1600<br />
<strong>AIAA</strong>-2007-0432<br />
Influence of Kinetics on<br />
Transversal Discharge<br />
Gas Heating Region<br />
Size <strong>and</strong> Form in<br />
Supersonic Gas Flow<br />
A. Aleks<strong>and</strong>rov,<br />
Moscow State<br />
University, Moscow,<br />
Russia<br />
1630<br />
<strong>AIAA</strong>-2007-0433<br />
Microwave Discharge in<br />
Quasi- optical Wave<br />
Beam<br />
I. Esakov, Moscow<br />
Radiotechnical Institute<br />
RAS, Moscow, Russia<br />
1700<br />
<strong>AIAA</strong>-2007-0434<br />
Influence of Magnetic<br />
Field on Gas Discharge<br />
Used for Air Ioniization<br />
A. Erofeev, Russian<br />
Academy of <strong>Sciences</strong>,<br />
St. Petersburg, Russia
Change language