HISUI Vicarious calibration and Cal/Val activities

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HISUI Vicarious calibration and Cal/Val activities Hirokazu YAMAMOTO (GSJ, AIST) Kenta OBATA (GSJ, AIST) Toru KOUYAMA (ITRI, AIST) Satoshi TSUCHIDA (GSJ, AIST)

Introduction The Hyperspectral Imager Suite (HISUI) is the Japanese next-generation Earth observation project, and is being devel- oped by Japanese Ministry of Economy, Trade, and Industry (METI). HISUI Calibration Working Group considers the following calibration methods. Onboard Calibration : Calibrated using the calibration device on satellite Vicarious Calibration : Calibrated by simultaneous ground measurement Cross Calibration : Calibrated using other satellite instruments Lunar Calibration (TBD): Calibrated by viewing the moon (stable radiance)*

Specifications of HISUI Multispectral Imager and Hyperspectral Imager Parameter Hyperspectral Imager Multispectral Imager Imaging Type Pushbroom Pushbroom Spatial Resolution / Swath 30 m / 30 km 5 m / 90 km Spectral SNR (30% albedo) Bands 185 4 Range 0.4-2.5 μm 0.485-0.835 µm Resolution 10 12.5 nm 60 110 nm 450 @620 nm 300 @2100 nm 200 MTF 0.2 0.3 Dynamic Range Spectral Calibration VNIR : 0.2 nm SWIR :0.625 nm Saturated at 70% alebdo Radiometric Calibration Absolute : ±5%, among bands :±2% Quantization 12 bits Data Compression Lossless (70%) Pointing Cross track : ± 3 N/A

Vicarious calibration sites for HISUI Alkali Lake (ALL) Railroad Valley (RRV) Lake Lefroy (LLF) Summer in northern hemisphere Summer in southern hemisphere - Collaboration with CSIRO since 2009 We try to increase vicarious calibration frequency using both of northern hemisphere and southern hemisphere.

CSIRO set up the CIMEL site, which is known as Aeronet (http://aeronet.gsfc.nasa.gov/) station close to Lake Lefroy in 2012, and ground-based atmospheric data can be downloaded from Aeronet since June, 2012.

Ozonometer Sunphotometer Spectralon Thermo Recorder (Pressure/Temperature) Field Campaign on Nov 26, 2013 (Lake Lefroy, Australia).

ASTER image Captured on Nov 26, 2013 Field Campaign on Nov 26, 2013 (Lake Lefroy, Australia).

Morning Constellation satellites A view of the Earth with EO-1 above showing instrument swath widths (Pearlman, Carman, and Segal, 2001) http://eo1.gsfc.nasa.gov/new/validationreport/technology/t RW_EO1%20Papers_Presentations/05.pdf Nov. 26, 2013 : - Field Campaign - Terra ASTER - Landsat-7 ETM+ Dec. 12, 2013 : - EO-1 ALI - EO-1 Hyperion - Landsat-7 ETM+ The EO-1 satellite flies in an orbit that covers the same ground track as Landsat 7, approximately one minute later, and then Terra satellite flies in the same orbit after approximately 30 minutes.

MOD08_D3, MISR L3, and Aeronet@LLF AOT on Nov. 26 Lake Lefroy MOD08_D3 generated by NASA Giovanni (http://disc.sci.gsfc.nasa.gov/) (AOT@550[nm]<??) Aeronet (Lake Lefroy (AOT@500[nm] (Ver1.5) : Approx. 0.06-0.07) Lake Lefroy MISR L3 generated by NASA Giovanni (http://disc.sci.gsfc.nasa.gov/) FC Ground measurement (Nov 26, 2013): AOT@550[nm] = 0.037

MOD08_D3 and Aeronet@LLF AOT on Dec. 12 Lake Lefroy MOD08_D3 generated by NASA Giovanni (http://disc.sci.gsfc.nasa.gov/) (AOT@550[nm] :??) MISR L3 product ends on Nov 30, 2013. Aeronet (Lake Lefroy) (AOT@500[nm] (Ver1.5) : Approx.??)

MOD08_D3 and Aeronet@LLF Water Vapor on Nov. 26 MOD08_D3 generated by NASA Giovanni (http://disc.sci.gsfc.nasa.gov/) (Water Vapor: Approx. 2.0?) FC Ground measurement (Nov 26, 2013) : Water Vapor = 1.24 [cm] Aeronet (Lake Lefroy) (Water Vapor (Ver1.5) : Approx. 1.7-1.8)

MOD08_D3 and Aeronet@LLF Water Vapor on Dec. 12 MOD08_D3 generated by NASA Giovanni (http://disc.sci.gsfc.nasa.gov/) (Water Vapor: Approx. 2.0?) Aeronet (Lake Lefroy) (Water Vapor (Ver1.0) : Approx.??)

Aura OMI L3 Column Amount Ozone on Nov 26 and Dec 12, 2013 Lake Lefroy Lake Lefroy Aura OMI L3 generated by NASA Giovanni (http://disc.sci.gsfc.nasa.gov/) (Column Amount Ozone: Approx. 275-300 on Nov 26, 2013 FC Ground measurement (Nov 26, 2013) : Ozone = 309.4 [DU] Aura OMI L3 generated by NASA Giovanni (http://disc.sci.gsfc.nasa.gov/) (Column Amount Ozone: Approx. 275-300 on Dec 12, 2013

Reflectance factors measured at Lake Lefroy on Nov 26, 2013 Surface reflectance factors are derive by using Spectralon white reference panel. We need to evaluate white reference panels we use.

Spectral Irradiance CEOS recommended solar irradiance spectrum (Thuillier 2002) SUN01kurucz2005 irradiance model is included in MODTRAN5 code. 400-2384 [nm] : Thuillier 2002 2384-2500[nm] : SUN01kurucz2005

Comparison of TOA radiance We need to evaluate the accuracy around the radiance/reflectance affected by water vapor absorption.

Cross-calibration Sensor1 Sensor2 - Radiometric - Wavelength Atmosphere Atmospheric correction BRDF, effects of spatial scaling, Band-to-Band conversion Scattering Absorption We are going to establish the algorithm of cross-calibration for HISUI

Lunar Reflectance Simulating Model Moon based observations on SELENE/SP (Spectral Profiler) data Reflectance map [Yokota et al., 2011] Geometrical dependencies on incident, emission and phase angles 530 1600 nm (160 channels) Δλ = 6-10 nm 0.5 x 0.5 grid interval 1~2 pixel size of ASTER/VNIR (observing from Earth) By using the model, we can simulate/predict any moon observation. April 13, 2003 April 15 April 18

Application of HISUI Calibration parameters GDS (Ground Data System) L0B data for Geo/Cal L0B data for Rad/Cal Geometric Radiometric GCP FC data Other satellite data Geo/Cal (L1) WG Rad/Cal WG Band alignments Pixel alignments GCP check Geometric calibration tables Archives Renewing Every ** months Onboard cal. Vicarious / Cross cal. Lunar cal. Radiometric calibration tables Archives Renewing Every 6 months Reviewing every year?

Conclusions EO-1 Hyperion, ALI, Terra ASTER with ground-based data by vicarious calibration experiment is useful as HISUI vicarious calibration and crosscalibration in the pre-launch phase. We continue to evaluate the vicarious calibration and cross-calibration using these satellite sensors. We will develop an algorithm of the cross-calibration for HISUI sensor. We should consider evaluation of obtained reflectance factor around water vapor absorption band for vicarious calibration. White reference panel plays a key role on reflectance approach for vicarious calibration measurement because we use NIST traceable panel. We also plan to understand the characteristics of difference between NIST traceable panel and the white reference panel used in field campaign. HISUI Calibration Working group considers the lunar calibration for HISUI using Lunar Reflectance Model based on SELENE SP data. HISUI Calibration Working group is going to arrange the calibration archive system due to renewing HISUI calibration parameters.

Example of averaged surface reflectance factor 2011 Ivanpah Playa Railroad Valley Lake lefroy Lake lefroy