Scientific and Technical Aerospace Reports Volume 39 April 6, 2001

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ected; however, files of relative X and Y coordinates for each image pixel were derived by using the C130 INS data in an NS001 scan model. The data are provided in binary image format files. Author Ecosystems; Atmospheric Models; Remote Sensing; Imagery 20010022246 NASA Goddard Space Flight Center, Greenbelt, MD USA BOREAS Level-2 MAS Surface Reflectance and Temperature Images in BSQ Format Hall, Forrest G., Editor, NASA Goddard Space Flight Center, USA; Newcomer, Jeffrey, Editor, Raytheon Information Technology and Scientific Services, USA; Lobitz, Brad, Johnson Controls World Services, USA; Spanner, Michael, Johnson Controls World Services, USA; Strub, Richard, Raytheon Information Technology and Scientific Services, USA; Lobitz, Brad; September 2000; 35p; In English Contract(s)/Grant(s): RTOP 462-33-01 Report No.(s): NASA/TM-2000-209891/VOL88; Rept-2000-03136-0/VOL88; NAS 1.15:209891/VOL88; No Copyright; Avail: CASI; A03, Hardcopy; A01, Microfiche The BOReal Ecosystem-Atmosphere Study (BOREAS) Staff Science Aircraft Data Acquisition Program focused on providing the research teams with the remotely sensed aircraft data products they needed to compare and spatially extend point results. The MODIS Airborne Simulator (MAS) images, along with other remotely sensed data, were collected to provide spatially extensive information over the primary study areas. This information includes biophysical parameter maps such as surface reflectance and temperature. Collection of the MAS images occurred over the study areas during the 1994 field campaigns. The level-2 MAS data cover the dates of 21-Jul-1994, 24-Jul-1994, 04-Aug-1994, and 08-Aug-1994. The data are not geographically/geometrically corrected; however, files of relative X and Y coordinates for each image pixel were derived by using the C130 navigation data in a MAS scan model. The data are provided in binary image format files. Author Flight Simulators; Imaging Spectrometers; Remote Sensing; Spectroradiometers; Ecosystems; Spectral Reflectance; Surface Temperature 20010022251 NASA Goddard Space Flight Center, Greenbelt, MD USA Proposed Definitions of Some Technical Terms Frequently Used in Microwave Radiometry for Remote Sensing Shiue, James C., NASA Goddard Space Flight Center, USA; [2000]; 1p; In English; Microwave Radiometer Calibration, 30-31 Oct. 2000, College Park, MD, USA; No Copyright; Avail: Issuing Activity; Abstract Only The use of microwave radiometry for remote sensing is a relatively young field. As a result, there are no standard definitions of many frequently used technical terms; a lot of which are conventional usages carried-over from optical remote sensing, and a lot more are shared with electrical or microwave engineering. Sometimes the divergent notions and assumptions originating from a different field may cause ambiguity or confusions. It is proposed that we establish a list of frequently used terms, together with their ’standard’ definitions and hope that they will gradually gain general acceptance by the remote sensing community. It would be even more useful if the IEEE community can set up a standard committee of sort to develop and maintain the standards. To minimize the effort, the existing terms should be kept or reinterpreted as much as possible. For example, the term ’Instantaneous Field of View’ (IFOV), originally coming from the optical remote sensing field, is now appearing in microwave remote sensing literature frequently. The IFOV refers to the ’beam width’ or the ’diameter’ of the beam’s geometrical projection on earth surface. Since the definition of ’beam width’ is different for an optical system versus a microwave antenna, the use of IFOV in microwave radiometry needed to be clarified. Also, the meaning of the IFOV will be different depending upon whether the beam is scanning or not, and how the scanning takes place, e.g. ’continuous scanning’ vs ’stare-and-step scan.’ From this one term alone, it is clear that more subtle meanings must be spell out in detail and a ’standard’ definition would help in understanding and comparing systems and data in the literature. A selected list of terms with their suggested definitions will be discussed in this presentation. Author Remote Sensing; Terms; Standardization; Definition 20010022270 NASA Goddard Space Flight Center, Greenbelt, MD USA E-Theatre Hasler, Arthur F., NASA Goddard Space Flight Center, USA; [2001]; 2p; In English; AMS Meeting, 14-19 Jan. 2001, Albuquerque, NM, Provo, UT, USA, USA; No Copyright; Avail: Issuing Activity; Abstract Only Mesoscale/severe storms and results from Terra Fritz Hasler (NASA/Goddard) will show the latest spectacular animations of the hurricanes and tropical storms: Floyd, Georges, Mitch, Bonnie etc. from Geostationary Operational Environmental Satellites (GOES) and Tropical Rain Measuring Mission (TRMM) supported by MMS 3D nested numerical model results. See dust 170
storms in Africa and smoke plumes from fires in Mexico. See how High-Definition Television (HDTV) is revolutionizing entertainment and the way we communicate scientific results. Fly in from space and take a tour of Africa. Drop in on Albuquerque using 1-m Ikonos ’Spy Satellite’ technology. See data from the new Earth Observing System (EOS) Terra satellite as well as LANDSAT 7, and SeaWiFS. See climate change in action with Global Land and Ocean productivity changes over the last 20 years. Remote sensing observations of Sea Surface Temperature (SST), El Nino, height, winds and ocean color from GOES, National Oceanic and Atmosphere Administration Advanced Very High Resolution Radiometer (AVHRR), Special Sensor Microwave Imager (SSMI), and SeaWiFS put in context with ten year LANL global ocean model. Compare the Gulf Stream observed by Terra with the simulations. Additional information is contained in the original extended abstract. Author High Definition Television; Computerized Simulation; Mesoscale Phenomena; Remote Sensing 20010022368 NASA Goddard Space Flight Center, Greenbelt, MD USA BOREAS TF-4 SSA-YJP Tower Flux, Meteorological, and Canopy Condition Data Striegl, Robert, Geological Survey, USA; Wickland, Kimberly, Geological Survey, USA; Hall, Forrest G., Editor, NASA Goddard Space Flight Center, USA; Huemmrich, Karl, Editor, Maryland Univ., USA; October 2000; 26p; In English Contract(s)/Grant(s): RTOP 462-33-01 Report No.(s): NASA/TM-2000-209891/VOL197; Rept-2000-03136-0/VOL197; NAS 1.15:209891/VOL197; No Copyright; Avail: CASI; A03, Hardcopy; A01, Microfiche The BOReal Ecosystem-Atmosphere Study Tower Flux (BOREAS TF-4) team collected energy, carbon dioxide, and water vapor flux data at the BOREAS Southern Study Area-Young Jack Pine (SSA-YJP) site during the growing season of 1994. In addition, meteorological data were collected both above and within the canopy. The data are available in tabular ASCII files. Author Ecosystems; Canopies (Vegetation); Meteorological Parameters; Meteorological Instruments; Carbon Dioxide; Water Vapor; Data Acquisition; Flux Density 20010022370 NASA Goddard Space Flight Center, Greenbelt, MD USA BOREAS TF-1 SSA-OA Soil Characteristics Data Black, T. Andrew, British Columbia Univ., Canada; Chen, Z, British Columbia Univ., Canada; Nesic, Z., British Columbia Univ., Canada; Hall, Forrest G., Editor, NASA Goddard Space Flight Center, USA; Papagno, Andrea, Editor, Raytheon Information Technology and Scientific Services, USA; October 2000; 33p; In English Contract(s)/Grant(s): RTOP 462-33-01 Report No.(s): NASA/TM-2000-209891/VOL192; NAS 1.15:209891/VOL192; Rept-2000-03136-0/VOL192; No Copyright; Avail: CASI; A03, Hardcopy; A01, Microfiche The BOREAS TF-1 team collected several data sets in support of its efforts to characterize and interpret soil information at the SSA-OA tower site in 1994 as part of BOREAS. Data sets collected include soil respiration, temperature, moisture, and gravimetric data. The data are stored in tabular ASCII format. Author Data Acquisition; Moisture; Soils 20010022371 NASA Goddard Space Flight Center, Greenbelt, MD USA BOREAS TF-1 SSA-OA Tower Flux, Meteorological, and Soil Temperature Data Hall, Forrest G., Editor, NASA Goddard Space Flight Center, USA; Huemmrich, Karl, Editor, Maryland Univ., USA; Black, T. Andrew, British Columbia Univ., Canada; Chen, Z., British Columbia Univ., Canada; Nesic, Zoran, British Columbia Univ., Canada; October 2000; 33p; In English Contract(s)/Grant(s): RTOP 462-33-01 Report No.(s): NASA/TM-2000-209891/VOL189; Rept-2000-03136-0/VOL189; NAS 1.15:209891/VOL189; No Copyright; Avail: CASI; A03, Hardcopy; A01, Microfiche The BOREAS TF-1 team collected energy, carbon dioxide, and momentum flux data above the canopy along with meteorological and soils data at the BOREAS SSA-OA site from mid-April to the end of the year for 1996. The data are available in tabular ASCII files. Author Meteorological Parameters; Ecosystems; Surface Temperature; Soils 171
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Scientific and Technical Aerospace
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Introduction Scientific and Technic
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Subject Divisions Table of Contents
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Subject Categories of the Division
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73 Nuclear Physics 263 Includes nuc
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Document Availability Information T
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Avail: NASA Public Document Rooms.
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Hardcopy & Microfiche Prices Code N
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ALABAMA AUBURN UNIV. AT MONTGOMERY
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03 AIR TRANSPORTATION AND SAFETY
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work of the JAA had established thi
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20010024868 Federal Aviation Admini
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20010023437 Defence Science and Tec
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The Models for Aeroelastic Validati
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20010025824 Pratt and Whitney Aircr
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20010023064 NASA Langley Research C
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17 SPACE COMMUNICATIONS, SPACECRAFT
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20010026207 NASA, Washington, DC US
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The objective of the proposed resea
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20010022640 Stanford Univ., Center
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ustion, showing that these can have
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20010026184 Oak Ridge National Lab.
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film. Subsequent electroless metal
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20010024029 Houston Univ., Dept. of
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equipment indicate a change in the
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interaction, the main gas products
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Contract(s)/Grant(s): W-7405-eng-48
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for detecting and measuring deviato
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work, additional significant effect
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20010026182 Oak Ridge National Lab.
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20010024162 Army Research Lab., Ade
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matching funds. MIRSL purchased an
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20010023557 North Dakota State Univ
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20010026217 Princeton Univ., NJ USA
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20010024108 Center for Naval Analys
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undertaken to isolated it are descr
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non-buoyant axisymmetric jet issuin
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point. The other turbulent problem
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20010024042 Houston Univ., Dept. of
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The research carried out in the Hea
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along the heater surface and depart
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cal transducers. Additionally, the
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tial for its successful commercial
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This project represents a combined
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20010024910 Johns Hopkins Univ., De
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e caused by a non-uniform temperatu
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metric shear cell, employed upon th
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20010024919 Alabama Univ., Huntsvil
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Newtonian fluids in the laboratory,
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Boussinesq convection where due to
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20010024930 Creare, Inc., Hanover,
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Illumination of a space-borne objec
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The hydrodynamics near steadily mov
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to be done is the full coupled syst
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liquid crystal host. Since the ulti
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the inorganic synthesis using press
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when the buoyancy is removed, for e
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20010024956 NASA Ames Research Cent
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2.2-second drop tower at NASA Glenn
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we have examined the dynamical beha
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position of the interface. An oscil
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the first time, non-intrusive, high
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’axial curvature pressure’. A t
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moons when disturbed by low velocit
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particle size was studied. In a den
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Page 143 and 144: 20010024983 Notre Dame Univ., Physi
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Page 147 and 148: drop deposition, using Schiaffino a
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Page 167 and 168: 20010025024 NASA, Washington, DC US
Page 169 and 170: neously the gamma scattered method
Page 171 and 172: 20010023125 Colorado Univ., Lab. fo
Page 173 and 174: Contract(s)/Grant(s): F19628-95-C-0
Page 175 and 176: ics Technology Letters; March 2000;
Page 177 and 178: The BOREAS RSS-1 team collected sur
Page 179 and 180: ically corrected; however, files of
Page 181 and 182: with wavelength bands specific to t
Page 183 and 184: 20010022099 NASA Goddard Space Flig
Page 185 and 186: within the polygon). There are thre
Page 187 and 188: A03, Hardcopy; A01, Microfiche Cana
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Page 199 and 200: The BOREAS TGB-8 team collected dat
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Page 207 and 208: The BOREAS TF-10 team collected tow
Page 215 and 216: cally Active Radiation (FPAR) absor
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Page 221 and 222: 20010023558 Texas Univ., Center for
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Page 225 and 226: 20010023278 Lembaga Penerbangan dan
Page 227 and 228: Atmospheric radiation in the infrar
Page 229 and 230: 20010022976 Desert Research Inst.,
Page 231 and 232: The primary purpose of AASERT Grant
Page 233 and 234: with only small ice-covered areas r
Page 235 and 236: Task 2 - abstraction of Medical rec
Page 237 and 238: non-steroidal activators of the rec
Page 239 and 240: 20010023796 Massachusetts Univ. Med
Page 241 and 242: 20010024166 Chicago Univ., Chicago,
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20010025069 Cleveland Clinic Founda
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Prior to 1994, measurement of tumor
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20010025730 Illinois Univ., Broad o
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the processing for enhancement of s
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strides in detection, diagnosis, an
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20010025763 California Univ., Lawre
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The ability to detect carcinoma cel
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ations found in clinical and geneti
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20010021850 Michigan Univ., Dept. o
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20010021985 National Inst. of Healt
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20010023264 Department of Health an
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on the BBB in rats, researchers not
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navigation method shows an advantag
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ange, and for some combinations of
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consider two specific issues in app
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planning with the Remote Agent expe
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training courses for the CAD tools.
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In this report, we consider the pro
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of the neural network and hence, th
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65 STATISTICS AND PROBABILITY �
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from the Lagrangian of the system.
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The average U-235 neutron total cro
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20010026201 Sandia National Labs.,
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to be 8.5-10.5 degrees which concur
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77 PHYSICS OF ELEMENTARY PARTICLES
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20010026247 Abdus Salam Internation
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Board (Access Board) under the auth
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currently underway or planned durin
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transfer function that would cover
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90 ASTROPHYSICS ��
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strates that as the gyroradius incr
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20010023043 Jet Propulsion Lab., Ca
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climatic variations. This can only
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try), allowing the same samples, in
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This work will describe the Thermal
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20010023068 Tennessee Univ., Dept.
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is crucial to the successful landin
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flat-plate Michelson interferometer
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general public is definitely intere
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exploration, examine specific optio
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tions of water. Often, due to lower
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With the exploration strategy for M
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necessary to ensure delivery of a s
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spectral studies to the field, and
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93 SPACE RADIATION ��
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ATMOSPHERIC RADIATION, 163, 205 ATM
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DEW POINT, 165 DIAGNOSIS, 217, 220,
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GRAVITATION, 54, 84, 88, 110, 111,
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MATRIX THEORY, 270 MEASURING INSTRU
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ST-10 Q QUALITY CONTROL, 11, 213 QU
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ST-12 T TARGET RECOGNITION, 265 TAS
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A Abdelguerfi, Mahdi, 252 Abramo, R
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Cledassou, R., 311 Clemmet, J., 306
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Gorelick, N., 294 Gorevan, S. P., 4
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Kupinski, Matthew A., 256 Kuznetz,
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Parks, C. H., 249 Parr, T. P., 38 P
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Swisdak, Michael M., Jr., 37 Szalew
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