PI: Scott Braun Deputy PI: Paul Newman PM: Marilyn Vasques PS: Ramesh Kakar.

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Presentation transcript:

PI: Scott Braun Deputy PI: Paul Newman PM: Marilyn Vasques PS: Ramesh Kakar

To provide measurements to address key science questions related to storm formation and intensity change, including whether it is primarily a function of the storm environment or storm internal processes

 What aspects of the environment most impact the ability of a tropical storm to form and intensify?  Is the Saharan Air Layer positive or negative influence on storm formation and evolution? Both?

 Are convective hot towers actively contributing to storm intensification beyond merely contributing to the total mass flux required for intensification?  Do specific transformations of convective structure occur prior to genesis and rapid intensification?

NASA’s Global Hawk Unmanned Airborne System Cruise Climb from 56-65K ft (max takeoff weight) 5 Hurricane Earl’s eye as seen from the GH

Two aircraft, one equipped for the storm environment, one for over-storm flights Deployments of GHs from the East Coast, likely Wallops Flight Facility in VA One-month deployments in 2012, 2013, and year mission ensures adequate sampling of a wide variety of conditions Dots indicate genesis locations. Range rings assume 30-h flights.

 Cloud/aerosol lidar (CALIPSO simulator)  Instrument PI: Matt McGill, NASA/GSFC  Data: Profiles of atten. backscatter, cloud/aerosol boundaries, optical depth, extinction, depolarization  Horiz., vertical resolution=200 m, 30 m

 Instrument PI: Gary Wick, NOAA  Data: High-resolution vertical profiles of temperature, humidity, pressure, winds  Potentially up to drops per flight  New design has flown on GH  Test flights (low, mid, high alt.) completed 2/4/11  NOAA science flights ongoing

 Instrument PI: Hank Revercomb, Univ. Wisconsin  Data: IR TB spectra; Cloud-top temperature, height; sfc skin temperature; profiles of temperature and water vapor in clear-sky conditions  Horiz., vertical resolution=2 km, 1-3 km

 Instrument PI: Bruce Gentry, NASA/GSFC  Data: Profiles of backscatter intensity, Doppler velocity, horizontal winds in clear-sky conditions  Will fly as part of HS3 in only due to NGC schedule, wind pod availability  Horiz., vertical resolution=~2 km radial winds, 8 km for retrieved horizontal winds, 250 m

 Instrument PI: Bjorn Lambrigtsen, JPL  Data: Calibrated brightness temperature; vertical profiles of temperature and water vapor and liquid water; precipitation structure  Horiz., vertical resolution=2km, 1-3 km 2 km 3 km 4 km 5 km 6 km 7 km 8 km 9 km 10 km 11 km 12 km 13 km 14 km 15 km 3D reflectivity, Hurricane Emily (2005)

 Instrument PI: Gerald Heymsfield, NASA/GSFC  Data: Calibrated reflectivity, Doppler velocity, 3D reflectivity and horizontal winds, ocean surface winds in precipitation free areas  Horiz., vertical resolution=  1 km, 200 m for dBZ, Doppler velocity  1 km, 500 m for horiz. winds  2 km for surface winds

 Instrument PI: Tim Miller, NASA/MSFC  Data: Surface wind speed, rain rate, and temperature; brightness temperature fields at 4 frequencies  Technology similar to NOAA’s SFMR, but scans cross track instead of just nadir  Horiz. resolution=~ km Example from Hurricane Earl flight during GRIP

Orange shading is 24-h precipitation  Operations to be closely coordinated with other available aircraft (e.g., NOAA P-3s, G4) to maximize data coverage and continuity, similar to GRIP  Will occasionally fly east of operational aircraft

Initial concept is to fly GHs serially if desired to alternate environment and over-storm sampling Manpower, cost, potential FAA issues make simultaneous flights unlikely Can have one GH coming back while the other is going out Turn-around time for either GH (landing to next takeoff ~24-48 h 300 total science flight hours per deployment Division between the aircraft will depend on science goals and weather

 Goal: To make data widely available for ◦ Hurricane research ◦ Satellite calibration/validation activities (GPM, NPP, GOES-R) ◦ Model improvement research (DA, microphysics)  Collaboration with HFIP  Would like to collaborate with NHC to develop useful real-time products

 All data to be publically available ◦ Some data products to be made available in real time ◦ Following each deployment, ~6-9 months for data QC, processing ◦ Links to data, as well as all mission information, at