COPC Meeting at NCEP, 20-21 October 2009 NOAA/NESDIS support of ESA’s ADM/Aeolus mission Lars Peter Riishojgaard Joint Center for Satellite Data Assimilation.

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Presentation transcript:

COPC Meeting at NCEP, October 2009 NOAA/NESDIS support of ESA’s ADM/Aeolus mission Lars Peter Riishojgaard Joint Center for Satellite Data Assimilation

COPC Meeting at NCEP, October 2009 Overview ADM/Aeolus –Mission highlights –NWP relevance –Data policy –Baseline ground segment –Possibly alternative ground stations

COPC Meeting at NCEP, October 2009 ADM highlights Tech demo mission to be launched in 2011 First space-borne demonstration of wind lidar measurement Potentially a large contributor to NWP skill –Currently, the Global Observing System is dominated by mass (temperature) measurement –No direct, vertically resolved wind measurement available over uninhabited regions

COPC Meeting at NCEP, October 2009 ADM-Aeolus Doppler Wind Lidar Cross-track HLOS winds  HLOS (z) = 2-3 m/s Profiles 0–30 km Once every 200 km length Aerosol and molecular measurement channel Dawn-dusk polar-orbiter Launch date June (Stoffelen et al., BAMS, 2005) Slide from A. Stoffelen, KNMI

COPC Meeting at NCEP, October 2009 Current Upper Air Mass & Wind Data Coverage for operational NWP Upper Air Mass Observations Upper Air Wind Observations

COPC Meeting at NCEP, October 2009

ADM data policy ADM/Aeolus is an R&D mission, but … due to the value of these observations to NWP, ESA and WMO are making ADM part of the WMO Global Observing System Unprecedented step for ESA Data will be made available to the WMO member NMHS’s in “real time” Disseminated via the GTS

COPC Meeting at NCEP, October 2009 Baseline ground segment Single receiving station at Svalbard –Full orbital dumps; 50 Mb of science data per orbit –110 s total visibility required for one orbit 30 s for antenna locking 80 s for data dump Any additional data may require additional time (e.g. QRT or stored orbits)

COPC Meeting at NCEP, October 2009 NRT stream –Near Real Time, defined as data (level 1B) having latency of 3 h or less for the end user –NRT is targeted for global NWP and should in principle be available for all orbits –Low ADM orbit height => blind orbits in spite of high latitude of Svalbard –WMO requirement for global NWP is 1 h

COPC Meeting at NCEP, October 2009 QRT stream Quasi Real Time data targeted at regional NWP and other applications –Latency of 30 min or less –Assuming 20 (or 15) minutes total processing time, the QRT stream will consist of the last 10 (or 15) minutes of the orbit dumped either at the beginning of the pass (“AEAP”) or at the end of the pass (“ALAP”) –No Southern Hemisphere QRT data in Svalbard only scenario

COPC Meeting at NCEP, October 2009 QRT “AEAP” Scenario using Svalbard and Troll, assuming 15 (red+blue) or 20 minutes (blue) total processing time (all figures courtesy of H. Nett, ESA/ESTEC)

COPC Meeting at NCEP, October 2009 QRT (II) QRT availability for Europe is guaranteed under combined Troll/Svalbard scenario QRT will not be available for North America under this scenario However, a receiving station at Troll now appears unlikely due to financial constraints On request from LPR, ESA has studied implications of adding either Wallops or Svalbard as additional ground receiving stations

COPC Meeting at NCEP, October 2009 ADM pass duration at Svalbard (red) and Fairbanks (green)

COPC Meeting at NCEP, October 2009 ADM pass duration (elevation > 2 deg) at Svalbard (red) and Wallops (blue)

COPC Meeting at NCEP, October 2009 ADM pass duration (elevation > 1 deg) at Svalbard (red) and Wallops (blue)

COPC Meeting at NCEP, October 2009 QRT “AEAP” Scenario using Svalbard and Wallops, assuming 15 (red+blue) or 20 minutes (blue) total processing time

COPC Meeting at NCEP, October 2009 QRT (III) Fairbanks adds relatively little to QRT scenario; sees basically the same orbits as Svalbard; adds robustness for NRT stream Due to near-perfect longitude, Wallops is a useful addition in spite of the low latitude Assuming 1 deg minimum elevation angle, Northern Hemisphere QRT will be available for all orbits under Svalbard/Wallops scenario

COPC Meeting at NCEP, October 2009 Potential US involvement NOAA/NESDIS owns suitable antennas at Wallops that are currently not fully utilized Dedicating an antenna to ADM as a secondary receiving station for a few (<6) orbits per day, 2-3 minutes per orbit would accomplish the following –Guarantee QRT (< 30 min latency) for eastern North America –Add robustness and reliability of global NRT data

COPC Meeting at NCEP, October 2009 Current status Kathy Kelly, briefed on May 15 –Has verified technical feasibility with OSO staff; cost not seen as a major issue –Direct contact established between technical staff at OSO and ESA/ESTEC – Subject brought to the attention of the NESDIS AA who expressed support NOAA/NESDIS is prepared to support ADM with a secondary receiving station at Wallops upon request from COPC –Draft letter being prepared for signatures by COPC Principals –JAG/ODAA endorsed the idea of NOAA/NESDIS ground support for ADM at 09/16/09 meeting