The CFOSAT project: a cooperation to assess wave directional spectra and surface winds   P.Castillan (1) , N. Corcoral (1) ,  C. Tison (1) ,   T. Amiot (1) , E. Thouvenot (1) , D. Hauser (2)   (1)  CNES, « Altimetry and Radar » department, France (2)  OVSQ, CNRS, LATMOS-IPSL, France [email_address] C hina F rance   O ceanography   S A T e l l i t e
Summary What is the CFOSAT mission? Mission objectives Description of CFOSAT Focus on the SWIM instrument
The CFOSAT mission CFOSAT: an innovative China/France mission for oceanography Joint measurements of oceanic wind and waves SWIM : a wave scatterometer (new instrument) SCAT : a wind scatterometer (fan beam concept) SWIM, new spaceborne instrument with technology innovations (antenna, on-board digital processing) SCAT, new concept of wind scatterometer Access to 2D wave spectrum with high angular resolution and with global scale Joint measurements of winds and waves This mission is a “world première”  SWIM SCAT
The CFOSAT mission CFOSAT is: a  scientific mission  for public services (Meteorology agencies, research centers, marine agencies, etc.) a   demonstration and pre-operational mission  (for Météo France, EUMETSAT, CEPMMT, etc.) In situ observations Spatial observations Models Forecast CFOSAT adds: a  new component to spatial oceanography systems a ssimilation of CFOSAT data in meteorological models p ossible integration of CFOSAT wave measures in GMES/MyOcean, GlobWave.
Key dates 2006 Signature of the Memorandum Of Understanding CFOSAT 2007- 2008   Phase A CFOSAT F easibility demonstration  2009-2010 Phase B CFOSAT P reliminary design 2011-2014 Phases C/D CFOSAT D etailed design M anufacturing of flight model and qualification models 2015 Operational system in orbit  L aunch from China (end of 2014)
A China/France cooperation Satellite control Platform CNSA/DFH SCAT CNSA/CAS (CSSAR) SWIM  CNES Contract : Thales Alenia Space Stations CNSA Chinese mission center  CHOGS CNSA/NSOAS Operations CNSA Operations / Mission Satellite X-band TM CNSA/CNES Contract : Thales Alenia Space X-band stations CNSA/NSOAS Launch / campaign Polar X-band stations CNES  Contract :  SSC French mission center  FROGS CNES/IFREMER Control center CNSA Network CNSA CFOSAT system – science & data Principal Investigators D.Hauser – CNRS/LATMOS Liu Jianqiang - NSOAS
Scientific objectives Global observation of ocean wind and waves with high temporal coverage Why? T o improve wind and wave forecast and sea-state monitoring T o improve the knowledge and the modeling of sea-surface processes T o get a simultaneous wind and wave measures for coupling effects characterization Secondary objectives (for SWIM) L and surface monitoring (soil moisture and soil roughness) P olar ice sheet characteristics Waves generation by  local winds Free propagation (swell) Bathymetry impact Coastal wave breaking
CFOSAT goals Sea state conditions have great impact on: C ommercial activities: marine transport and offshore activity (oil platform) P ollution transport S ecurity at sea and in coastal areas B iology and sediment transport S ea-ice formation/destruction G as exchange (CO2), stress over the ocean, heat fluxes S ea color (Albedo) Wind and waves measures are mandatory for weather forecast and climate survey.
Scientific requirements Mission M inimum duration of 3 years G lobal coverage over the oceans (polar orbit) D ata available in  near-real time SWIM D irectional wave spectra from incidences 6° to 8° To be measured in the wavelength range 70m-500m With a 10% accuracy on wavelength, 15° accuracy on wave propagation direction With a 15% accuracy on spectral level around the peak of the spectrum S ignificant wave height and wind speed from nadir 10% on SWH (or 50 cm whichever is better) rms <2 m/s on wind speed N ormalized radar cross-section form 0 to 10° Absolute accurcay of ±1 dB Relative accuracy between incidences ± 0.1  dB SCAT W ind vector Wind speed range and precision: 2m/s or 10% (larger) @5~24m/s Wind direction precision: 20 ° B ackscattering coefficient precision : 0.5dB S urface resolution  50km (standard product)  25km(experimental product)
Payloads SWIM S urface  W aves  I nvestigation and  M onitoring Real aperture radar in Ku-band   6 incidence angles: 0°, 2°, 4°, 6°, 8° et 10°  Antenna diameter: 90 cm (~2° aperture) Polarization VV Rotation speed: 5.7 rpm Power: 120 W Useful bandwidth: 320MHz Pulse duration: 50 µs PRF: 2 - 7 kHz  Two scientific payloads SWIM: Surface Waves Investigation and Monitoring SCAT: wind SCATterometer
Payloads SCAT Wind  SCAT terometer Real aperture radar in Ku-band Fan beam concept Incidence angles (on ground): 20°-65° Antenna size: 1.2mx0.4m Alternate polarization: HH-VV Rotation speed: 3.2 rpm Power: 120 W Useful bandwidth: 0.5 MHz Two scientific payloads SWIM: Surface Waves Investigation and Monitoring SCAT: wind SCATterometer © CSSAR/CAS
Satellite Mass and dimensions Mass ~600 kg Primary structure  ~1.5mx1.5mx1.5m Orbit Sun synchronous  Local time at descending node AM 7:00 Altitude at the equator 519 km Cycle duration 13 days
CFOSAT Movie
Ground system IWWOC – Waves & Wind  Mission Center  Brest CWWIC Instruments Mission Center  Toulouse Control center  S-band network  Xi’an   Sanya Chinese Mission Center  Beijing Mudanjiang Beijing Kiruna Inuvik Users Worldwide
igarss_2011_cfosat.ppt

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igarss_2011_cfosat.ppt

  • 1. The CFOSAT project: a cooperation to assess wave directional spectra and surface winds P.Castillan (1) , N. Corcoral (1) , C. Tison (1) , T. Amiot (1) , E. Thouvenot (1) , D. Hauser (2) (1) CNES, « Altimetry and Radar » department, France (2) OVSQ, CNRS, LATMOS-IPSL, France [email_address] C hina F rance O ceanography S A T e l l i t e
  • 2. Summary What is the CFOSAT mission? Mission objectives Description of CFOSAT Focus on the SWIM instrument
  • 3. The CFOSAT mission CFOSAT: an innovative China/France mission for oceanography Joint measurements of oceanic wind and waves SWIM : a wave scatterometer (new instrument) SCAT : a wind scatterometer (fan beam concept) SWIM, new spaceborne instrument with technology innovations (antenna, on-board digital processing) SCAT, new concept of wind scatterometer Access to 2D wave spectrum with high angular resolution and with global scale Joint measurements of winds and waves This mission is a “world première” SWIM SCAT
  • 4. The CFOSAT mission CFOSAT is: a scientific mission for public services (Meteorology agencies, research centers, marine agencies, etc.) a demonstration and pre-operational mission (for Météo France, EUMETSAT, CEPMMT, etc.) In situ observations Spatial observations Models Forecast CFOSAT adds: a new component to spatial oceanography systems a ssimilation of CFOSAT data in meteorological models p ossible integration of CFOSAT wave measures in GMES/MyOcean, GlobWave.
  • 5. Key dates 2006 Signature of the Memorandum Of Understanding CFOSAT 2007- 2008 Phase A CFOSAT F easibility demonstration 2009-2010 Phase B CFOSAT P reliminary design 2011-2014 Phases C/D CFOSAT D etailed design M anufacturing of flight model and qualification models 2015 Operational system in orbit L aunch from China (end of 2014)
  • 6. A China/France cooperation Satellite control Platform CNSA/DFH SCAT CNSA/CAS (CSSAR) SWIM CNES Contract : Thales Alenia Space Stations CNSA Chinese mission center CHOGS CNSA/NSOAS Operations CNSA Operations / Mission Satellite X-band TM CNSA/CNES Contract : Thales Alenia Space X-band stations CNSA/NSOAS Launch / campaign Polar X-band stations CNES Contract : SSC French mission center FROGS CNES/IFREMER Control center CNSA Network CNSA CFOSAT system – science & data Principal Investigators D.Hauser – CNRS/LATMOS Liu Jianqiang - NSOAS
  • 7. Scientific objectives Global observation of ocean wind and waves with high temporal coverage Why? T o improve wind and wave forecast and sea-state monitoring T o improve the knowledge and the modeling of sea-surface processes T o get a simultaneous wind and wave measures for coupling effects characterization Secondary objectives (for SWIM) L and surface monitoring (soil moisture and soil roughness) P olar ice sheet characteristics Waves generation by local winds Free propagation (swell) Bathymetry impact Coastal wave breaking
  • 8. CFOSAT goals Sea state conditions have great impact on: C ommercial activities: marine transport and offshore activity (oil platform) P ollution transport S ecurity at sea and in coastal areas B iology and sediment transport S ea-ice formation/destruction G as exchange (CO2), stress over the ocean, heat fluxes S ea color (Albedo) Wind and waves measures are mandatory for weather forecast and climate survey.
  • 9. Scientific requirements Mission M inimum duration of 3 years G lobal coverage over the oceans (polar orbit) D ata available in near-real time SWIM D irectional wave spectra from incidences 6° to 8° To be measured in the wavelength range 70m-500m With a 10% accuracy on wavelength, 15° accuracy on wave propagation direction With a 15% accuracy on spectral level around the peak of the spectrum S ignificant wave height and wind speed from nadir 10% on SWH (or 50 cm whichever is better) rms <2 m/s on wind speed N ormalized radar cross-section form 0 to 10° Absolute accurcay of ±1 dB Relative accuracy between incidences ± 0.1 dB SCAT W ind vector Wind speed range and precision: 2m/s or 10% (larger) @5~24m/s Wind direction precision: 20 ° B ackscattering coefficient precision : 0.5dB S urface resolution 50km (standard product) 25km(experimental product)
  • 10. Payloads SWIM S urface W aves I nvestigation and M onitoring Real aperture radar in Ku-band 6 incidence angles: 0°, 2°, 4°, 6°, 8° et 10° Antenna diameter: 90 cm (~2° aperture) Polarization VV Rotation speed: 5.7 rpm Power: 120 W Useful bandwidth: 320MHz Pulse duration: 50 µs PRF: 2 - 7 kHz Two scientific payloads SWIM: Surface Waves Investigation and Monitoring SCAT: wind SCATterometer
  • 11. Payloads SCAT Wind SCAT terometer Real aperture radar in Ku-band Fan beam concept Incidence angles (on ground): 20°-65° Antenna size: 1.2mx0.4m Alternate polarization: HH-VV Rotation speed: 3.2 rpm Power: 120 W Useful bandwidth: 0.5 MHz Two scientific payloads SWIM: Surface Waves Investigation and Monitoring SCAT: wind SCATterometer © CSSAR/CAS
  • 12. Satellite Mass and dimensions Mass ~600 kg Primary structure ~1.5mx1.5mx1.5m Orbit Sun synchronous Local time at descending node AM 7:00 Altitude at the equator 519 km Cycle duration 13 days
  • 14. Ground system IWWOC – Waves & Wind Mission Center Brest CWWIC Instruments Mission Center Toulouse Control center S-band network Xi’an Sanya Chinese Mission Center Beijing Mudanjiang Beijing Kiruna Inuvik Users Worldwide