Poster Session 3 |
| Turbulence, Volcanic Ash, and Instrumentation Posters |
| | P3.1 | Using WRF-ARW Data to Forecast Turbulence at Small Scales Jeffrey E. Passner, Army Research Laboratory, White Sands Missile Range, NM; and D. I. Knapp |
| | P3.2 | Development of a rapid-update turbulence nowcast product Larry B. Cornman, NCAR, Boulder, CO; and G. Wiener and T. Tasset |
| | P3.3 | Analysis on the Spatial and Temporal Distribution of the Aircraft Turbulences Occurred in South Korea for the Recent 10 years Jung-Hoon Kim, Yonsei University, Seoul, South Korea; and H. Y. Chun |
| | P3.4 | A new direction in clear-air turbulence forecasting based on spontaneous imbalance, Part I: Application of theory John A. Knox, Univ. of Georgia, Athens, GA; and D. W. McCann and P. D. Williams |
| | P3.5 | Performance of LIDAR-based turbulence detection algorithm P. W. Chan, Hong Kong Observatory, Hong Kong, China; and K. M. Kwong |
| | P3.6 | A new direction in clear-air turbulence forecasting based on spontaneous imbalance, Part II: case studies and statistical results Donald W. McCann, McCann Aviation Weather Reaserch, Inc., Overland Park, KS; and J. A. Knox and P. D. Williams |
| | P3.7 | Recent Meteorological Data Collection and Analysis In Support of United States Wake Turbulence Program Hadi S. Wassaf, Volpe Center, Research and Innovative Technologies Administration (RITA), Cambridge, MA; and A. Tabrizi and W. Frank |
| | P3.8 | Climatology of upper-level turbulence using in-situ measurements of eddy dissipation rate Jennifer Abernethy, NCAR/RAL, Boulder, CO |
| | P3.9 | Clear air turbulence forecasts: algorithms intercomparison using AMDAR Intensive Observation Period over Western Europe Agathe Drouin, Météo France, Toulouse, France; and C. Le Bot, C. Pagé, and T. Ludjet |
| | P3.10A | Developments in numerical clear air turbulence forecasting at the UK Met Office Debi Turp, UK Met Office, Exeter, Devon, United Kingdom; and P. Gill |
| | P3.11 | Automated volcanic ash dispersion forecasts Ming Liu, NRL, Monterey, CA; and D. L. Westphal, J. S. Reid, T. L. Tsui, J. Cook, D. A. Geiszler, and M. Frost |
| | P3.12 | New automated methods for detecting volcanic ash and determining mass loading from infrared radiances: Looking towards the NPOESS and GOES-R Era's Michael J. Pavolonis, NOAA/NESDIS, Madison, WI |
| | P3.13 | Global composite of volcanic ash “split window” geostationary satellite images Frederick R. Mosher, Embry-Riddle Aeronautical University, Daytona Beach, FL |
| | P3.14 | NRL satellite volcano ash plume monitoring Jeffrey D. Hawkins, NRL, Monterey, CA; and S. D. Miller, A. P. Kuciauskas, R. L. Bankert, F. J. Turk, K. Richardson, T. F. Lee, and J. E. Kent |
| | P3.15 | A methodology for the design of meteorological instrumentation networks Jeffrey H. Copeland, NCAR, Boulder, CO; and L. Carson and A. Yates |
| | P3.16 | Development of a Transfer Function for the ASOS All-Weather Precipitation Accumulation Gauge Jennifer M. Dover, NOAA/NWS, Sterling, VA |
| | P3.17 | A Study of Barometric Altimeter Errors in High Latitude Regions Young Yee, Mkey Technologies, LLC, Las Cruces, NM; and E. Yee |
| | P3.18 | Snow gauge performance during the Denver blizzards of December, 2006 Scott D. Landolt, NCAR, Boulder, CO; and J. L. Black, R. M. Rasmussen, and A. W. Tripp |