Integrating Airborne DWL and PBL Models in Real Time G.D. Emmitt, C. O’Handley, S. A. Wood and S. Greco Simpson Weather Associates WGSBLW Miami 2007.

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Presentation transcript:

Integrating Airborne DWL and PBL Models in Real Time G.D. Emmitt, C. O’Handley, S. A. Wood and S. Greco Simpson Weather Associates WGSBLW Miami 2007

Overview The Twin Otter Doppler Wind Lidar (TODWL) –Current plans for Monterey, CA Towed platform Coastal long flight legs WindSat & QuickScat underflights Prospecting for UAV atmospheric advantages Review of 2003 model/TODWL profile comparisons Recent start for Army sponsored realtime DWL/model validation and initialization

TODWL Instrument µm, coherent detection 2 mJ, 330 nsec (FWHM), 500 Hz 10 cm telescope two axis scanner,  30 &  120 deg, side door mount Weight: 425lb Power: 1.5KW ~7-10% total system efficiency Airborne Doppler Wind Lidar Aircraft Platform NPS CIRPAS Twin Otter Naval Postgraduate School Center for Interdisciplinary Remotely-piloted Aircraft Studies Optical Particle Counters TODWL Scanner PCASP  m FSSP  m CAPS  m

TODWL Characteristics

The Twin Otter Aircraft Navy Twin Otter operated by CIRPAS out of Marina, CA Unpressurized (~ 10 ft normal operations) Cruise speeds kts Equipped with: –GPS/INS –Dropsonde –aerosol probes –temperature, water vapor, turbulence sensors

Smart Towed Platform Zivko Aeronautics and CIRPAS

Near term flight plans Support Towed Platform experiments IPO/NESDIS(OSD) funded experiments –Undeflights of WindSat and QuickScat –Long baseline profiles for assimilation into NCEP models SkyWalker exploratory flights: Prospecting for UAV atmospheric advantages (next paper)

March 2003 profile set

Summary of Observation Comparisons The TODWL soundings have been processed to obtain accuracies of <.10 m/s in each component (u,v,w). Comparisons with other sounders must be interpreted with caution since integration times and sample volumes are different. Comparisons with model predictions suggest a significant effort is needed to understand the differences.

MM5 Model Validation Working with Nuss and Miller at NPS TODWL collected ~3000 profiles over a period of 4 hours with 50 m vertical resolution, ~ 600 m horizontal resolution and ~.10 m/s accuracy (over cycloid) Comparison with 4 km MM5 runs

NPS MM5 Run twice daily at the Naval Postgraduate School 30 vertical levels, 12 at or below 850 mb level Triple nest (108, 36, and 12 km); 4 km nest special run for this case “Warm” start (initial conditions generated blending 12-h MM5 forecast with observations) MRF PBL scheme M5

TODWL Flight Patterns

TODWL OBSERVATIONS

Airborne wind lidar comparisons with MM5 model profiles Airborne Over Water

Over ridges

Salinas Valley

PHASE II SBIR Started in September 2006 Two year study with Field Program Work in concert with a NAVY SBIR effort focused on developing an In-flight Lidar Integrated Mission Management System (I-LIMMS) –Real-time 4D visualization of airborne lidar and in-situ data –Utilize ADLAATS for mission management

Numerical Models Possible models: –WRF (WSMR) –MM5 (NPS) –3D Wind Model (Wang at ARL) –NOAA LAPS (ARL) What lidar information is required by model(s)? LOS? U,V profiles? Potential for model validation study in April 2007? (3D Wind Model)

Model Validation/Initialization Need guidance from modelers on how to best conduct validation studies and capture known issues of the model: –When is agreement sufficient to continue validation mode? –Recognize time and space displacement issues –Vertical variation in comparison differences

Field Testing Use 2003 data to establish baseline validation metrics Conduct new flights in April 2007 with modeling support in real time –Monterey, CA Conduct first demonstration flights for on-board system in Spring 2008 –Monterey, CA Conduct final demonstration in Fall 2008 –Ft Irwin, CA

Fort Irwin HANDAR stations

ADLAATS Potential Flight Patterns