GCOM-C/SGLI and its Lunar Calibration

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GCOM-C/SGLI and its Lunar Calibration Lunar Calibration Workshop December 1-4, 2014 JAXA/GCOM Proj. Yoshihiko Okamura (okamura.yoshihiko@jaxa.jp)

1. Overview of GCOM-C satellite and SGLI (1) Global Change Observation Mission(GCOM) Long-term observation of the earth s environment 5 years of each satellite's mission life and 13 years in total. Two satellite series; GCOM-W : Microwave observation for WATER CYCLE using AMSR2 (AMSR-E follow on) GCOM-C : Optical multi-channel observation for RADIATION BUDGET and CARBON CYCLE using SGLI (GLI follow on) GCOM-W (WATER) AMSR2 GCOM-C (CLIMATE) SGLI Sensor Advanced Microwave Radiometer 2 (AMSR2) Passive Microwave Observation Water vapor, soil moisture etc Sensor Second Generation Global Imager (SGLI) Optical Observation 380nm 12 micron Cloud, Aerosol, Vegetation, Chlorophyll etc 2

1. Overview of GCOM-C satellite and SGLI (2) GCOM-C satellite SGLI IRS ELU SGLI VNR ELU +Y deep space +X flight direction + Z earth SGLI IRS SRU SGLI VNR SRU SGLI VNR IRS SRU ELU Second Generation Global Imager Visible and Near Infrared Radiometer Infrared Scanning Radiometer Scanning Radiometer Unit Electronic Unit GCOM-C Orbit Parameters Orbit Type Local sun time sun-synchronous, ground track repeat, nearcircular orbit 10:15 10:45 at descending node Altitude above equator 798 km at Equator Inclination 98.6 degrees Mission Life > 5 years 3

1. Overview of GCOM-C satellite and SGLI (3) SGLI (Second Generation Global Imager) Non Polarized Observation Telescopes (24deg FOV x 3) Solar Diffuser Earth View Window Polarized Observation Telescopes (55deg FOV x2) Sun Cal. Window About 1.4m About 1.3m About 1.7m About 0.6m Deep Space Window Visible and Near Infrared Radiometer (SGLI-VNR) Sensor Unit Infrared Scanning Radiometer (SGLI-IRS) features SGLI VNR SGLI IRS Non Polarized Observation (11ch), IFOV 250m, Swath 1150km Polarized Observation(2ch), IFOV 1km, Swath 1150km Shortwave Infrared (SWI 4ch), IFOV 250m/1km, Swath 1400km Thermal Infrared (TIR:2ch), IFOV 500m, Swath 1400km 4

1. Overview of GCOM-C satellite and SGLI (4) SGLI performances The SGLI features are 250m (VNR-NP & SW3) and 500m (TIR) spatial resolution and polarization/along-track slant view channels (VNR-PL), which will improve land, coastal, and aerosol observations. GCOM-C SGLI characteristics Sun-synchronous Orbit (descending local time: 10:30) Altitude 798km, Inclination 98.6deg Mission Life 5 years (3 satellites; total 13 years) Push-broom electric scan (VNR) Scan Wisk-broom mechanical scan (IRS) 1150km cross track (VNR: VN & P) Scan width 1400km cross track (IRS: SW & T) Digitalization 12bit Polarization 3 polarization angles for P Along track Nadir for VN, SW and T, direction +45 deg and -45 deg for P On-board calibration Multi-angle obs. for 674nm and 869nm VN: Solar diffuser, LED, Lunar cal maneuvers, and dark current by masked pixels and nighttime obs. SW: Solar diffuser, LED, Lunar, and dark current by deep space window T: Black body and dark current by deep space window 250m over the Land or coastal area, and 1km over offshore SGLI channels L std L max SNR at Lstd IFOV VN, P: VN, P, SW: CH VN, P, SW: nm W/m T: m /sr/ m SNR T: Kelvin T: NE T m VN1 380 10 60 210 250 250 VN2 412 10 75 250 400 250 VN3 443 10 64 400 300 250 VN4 490 10 53 120 400 250 VN5 530 20 41 350 250 250 VN6 565 20 33 90 400 250 VN7 673.5 20 23 62 400 250 VN8 673.5 20 25 210 250 250 VN9 763 12 40 350 1200 250/1000 VN10 868.5 20 8 30 400 250 VN11 868.5 20 30 300 200 250 P1 673.5 20 25 250 250 1000 P2 868.5 20 30 300 250 1000 SW1 1050 20 57 248 500 1000 SW2 1380 20 8 103 150 1000 SW3 1630 200 3 50 57 250 SW4 2210 50 1.9 20 211 1000 T1 10.8 0.7 300 340 0.2 250/1000 T2 12.0 0.7 300 340 0.2 250/1000 TIR: 500m resolution is also used 5

2. SGLI Calibration Plan (1) Lunar Calibration Moon reflecting solar light is a stable light source as a long term calibration reference of the optical sensors. GCOM-C lunar calibration maneuvers are planned to be conducted every 29.5 days during 5 years mission. Lunar calibration concept is similar to SeaWiFS. Earth Lunar Observation Moon Calibration interval Every 29.5 days (= synodic period of the moon and the sun) Maneuver Lunar phase angle 7deg +/-3deg CT direction: about 29 pixels SGLI lunar observation Satellite Maneuver Requirement All bands (VNR & IRS) 250m resolution - Pitch rate of 0.15 deg/s with high stability - Selectable roll angle (lunar image in SGLI swath) Pitch Maneuver AT direction: about 92 lines 6

2. SGLI Calibration Plan (2) Onboard Calibration Devices & Calibration Manouver Onboard calibration devices and calibration maneuvers are used for SGLI calibration. Calibration input from deferent sources and different geometric direction provide us with good information for the systematic calibration error. 1st year 2nd Year 5th Year 1st 2nd 3rd 4th 5th 6th 7th 8th 9th 10th 11th 12th 1st 2nd 3rd 4th 5th 8th 9th 10th 11th 12th Major Launch Ver. 1.0 Release designed EOL Milestone Initial CAL/VAL Phase Initial On-Orbit Check Out Routine Operation Phase Routine Operation Phase Onboard Calibration Device Weekly Sun Calibration (LED Calibration as B/UP) Black body Calibration Calibration Manouver Lunar Calibration Manouver Sun Calibration Manouver for β correction (TBD) (TBD) Yaw 90deg Calibration Manouver (TBD) (TBD) Vical & Cross Calibration Callibration Campaign 7

3. Summary and future plan GCOM-C/SGLI Target launch of GCOM-C is JFY2016. Lunar calibration operations are planned to be conducted once per month. Expectation on GIRO Regarding the GCOM-C/SGLI, we are very interested in usage of the GIRO application as a common evaluation tool for our lunar calibration data. SGLI lunar calibration data can be shared in the range of the GIRO community once available, when we use the GIRO for SGLI evaluation. 8