Current status of Hyperspectral Imager Suite (HISUI) onboard International Space Station (ISS)

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2017 IEEE International Geoscience and Remote Sensing Symposium July 23 28, 2017, Fort Worth, Texas, US Current status of Hyperspectral Imager Suite (HISUI) onboard International Space Station (ISS) Jadeite HISUI has two meanings in Japanese, names of a mineral and a bird. Kingfisher *Tsuneo Matsunaga 1, Akira Iwasaki 2, Satoshi Tsuchida 3, Koki Iwao 3, Jun Tanii 4, Osamu Kashimura 4, Ryosuke Nakamura 3, Hirokazu Yamamoto 3, Soushi Kato 3, Kenta Obata 3, Koichiro Mouri 4, and Tetsushi Tachikawa 4 1 National Institute for Environmental Studies (NIES), 2 University of Tokyo, 3 National Institute of Advanced Industrial Science and Technology (AIST), 4 Japan Space Systems,

2 What is HISUI? A Successor of Terra ASTER l HISUI is a future spaceborne hyperspectral imager being developed by Japanese Ministry of Economy, Trade, and Industry (METI) as its 4th spaceborne optical imager mission. 1) OPS onboard JERS-1 satellite (1992 1998) 2) ASTER onboard NASA s Terra satellite (1999 -) 3) ASNARO (2014-) 4) HISUI (2019 -) ASNARO l The objective of HISUI is to obtain data necessary to start full-scale application development of hyperspectral remote sensing for oil/gas/mineral resource exploration and other fields such as agriculture, forestry, and coastal issues. l HISUI will be launched in 2019 and deployed on Japan Experiment Module (JEM) of International Space Station (ISS) for three year operation under collaboration with Ministry of Education, Culture, Sports, Science and Technology (MEXT) and JAXA. HISUI : A Japanese Spaceborne Hyperspectral Remote Sensing Mission IGARSS 2017, July 23-28, 2017, Fort Worth, Texas, US

3 HISUI Deployment on ISS JEM l HISUI-Exposed Payload (HISUI-ExP) and HISUIMission Data Recorder - Pressurized Module (MDR-PM) will be delivered to ISS by Dragon / Falcon 9 cargo rocket in 2019. l HISUI-ExP will be attached to Port #8 of JEM Exposed Facility (EF) as a nadir-viewing instrument. It also has support sensors such as a gyro, two star trackers, GPS receivers, and a mission data processor. l MDR-PM will be installed in JEM-PM. l HISUI data will be partially transmitted to ground stations ( 10 GB/day 30,000 km2). The rest ( max. 300 GB/day 900,000 km2) will be recorded in removal media and shipped back to Earth by cargo ships three or four times a year. HISUI : A Japanese Spaceborne Hyperspectral Remote Sensing Mission IGARSS 2017, July 23-28, 2017, Fort Worth, Texas, US

4 HISUI Specifications Parameter Imaging Type / Spectral Dispersion Spatial Resolution / Swath Spectral Range / Bands Resolution HISUI Specifications Pushbroom / Grating 20 m (CT) x 30 m (AT) / 20 km 0.4-2.5 µm / 185 bands 10 12.5 nm SNR (30% albedo) 450 620 nm 300 2100 nm MTF 0.2 Dynamic Range Saturated at 70% alebdo Spectral Calibration VNIR : 0.2 nm SWIR :0.625 nm Radiometric Calibration Absolute : ±5%, among bands :±2% Quantization / Data Compression 12 bits / Lossless (70%) Telescope Diameter HISUI ExP Dimensions / Mass 30 cm 2.3 x 1.5 x 1.6 m Nominal / Max 550 / 570 kg including Hyperspecral Imager ( 240 kg) ISS altitude 400 km

5 HISUI Schedule as of July 2017 We are here. FY Launch and Operation Instrument Ground Data System Others 06 07 08 09 10 11 12 13 14 15 16 17 18 19 20 21 Conceptual Design CDR Preliminary Design Critical Design HISUI-ExP/MDR-PM design Component Trial Evaluation Model Preliminary Design Critical Design Application Research Preparation Developement/Installation PFM Launch Additional Design & development Spectral Database Development Operation HISUI-Exp / MDR-PM DR HISUI-ExP/MDR-PM manufacturing/test IF test/ training/initial Operation Nominal Operation Data Analysis Methodology Research (JOGMEC)

Optical Diagram of HISUI Hyperspectral Imager 6 Filter Wheel Assembly - Bandpass filters - NIST SRM2065 + Myler film On-board Calibration Mechanism Lamp (Halogen lamp) Telescope (Three Mirror Anastigmat Type) Slit Assembly VNIR Spectrometer (Offner Type) CMOS 2D Detector SWIR Spectrometer (Offner Type) MCT 2D Detector Stirling Type Cooling Unit ( 145 K)

7 HISUI Exposed Payload (HISUI-ExP) FRGF HSRU GPS ANTENNA PIU STRUCTURE FRGF Flight Releasable Grapple Fixture HSRU HYPER Scanning Radiometer Unit MTC Modified Truncated Cone PIU Payload Interface Unit

8 HISUI ExP Attached to Port 8 of JEM EF

9 HISUI-ExP s Journey from Ground to ISS JEM EF Transfer from Dragon to JEM-EF by SPDM*1/SSRMS and JEMRMS Dragon with berthing to ISS Handover from SPDM/SSRMS to JEMRMS Transfer by JEMRMS Berthing to JEM-EF Transfer by SPDM/SSRMS Dragon free flight Launch by F9/Dragon SPDM : Special Purpose Dexterous Manipulator SSRMS : Space StaFon Remote Manipulator System JEM RMS : JEM Remote Manipulator System GEDI HISUI AcFvaFon, C/O and nominal operafons Ground OperaFon at SSPF(Space StaFon Processing Facility) of NASA KSC(Handover to NASA) and F9 Launch Site HISUI : A Japanese Spaceborne Hyperspectral Remote Sensing Mission Transfer from Japan to US Development of HISUI in Japan (Manufacturing, assembling, test and inspecfon) IGARSS 2017, July 23-28, 2017, Fort Worth, Texas, US

10 HISUI Data Flow MDR-PM MDP HSRU HISUI-ExP 1) HISUI has its own data receiving, storing, and sending devices on JEM EF and JEM PM. 2) HISUI data sent from EF device are recorded on the removable media in MDR-PM. ( 300 GB/day) (TBD). After recording, the media are planned to be shipped from ISS to the ground 3 or 4 times per year (TBD). In addition, the limited amount of HISUI data are transmitted from ISS to the ground station in near-real time. HISUI : A Japanese Spaceborne Hyperspectral Remote Sensing Mission IGARSS 2017, July 23-28, 2017, Fort Worth, Texas, US

11 HISUI Ground Data System (GDS) Status HISUI GDS consists of the four subsystems: Observation and Planning Subsystem (OPS) Product Generation Subsystem (PGS) User Interface Subsystem (UIS) System Integration Subsystem (SIS)

12 HISUI Onboard and Level 1 Processing Geometric DB ü ASTER GDEM V3 ü ASTER GWDB HISUI Hyperspectral Imager Level 1 processing flow Spectral binning, radiometric calibration, and smile corrections are carried out on orbit. Level 1 processing at GDS include scene cutting, radiometric degradation correction, keystone correction, geometric correction, cloud detection, and VNIR-SWIR parallax correction using DEM.

13 HISUI Product List as of July, 2017 Name Level 0 Level 1A Level 1R Level 1G Level 2 Raw data Description Raw DN product with all radiometric calibration coefficients. Spatial resampling is not applied. Top-of-atmosphere spectral radiance product. Spatial resampling is not applied. Geometrically corrected / orthorectified top-of-atmosphere spectral radiance product. Parallax correction, keystone property, and spectral continuity between VNIR and SWIR spectrometers are considered. Atmospherically corrected surface spectral reflectance product generated from L1G with QA information. This is Science Product for research purpose and not validated. * Cloud statistical data are attached to L1 and L2 products.

14 ISS HISUI Operation and Mission Planning HISUI OPS (Observation Planning Subsystem) will automatically create operation timing tables based on data acquisition requests (DARs), their priorities, and available resources such as instrument operation time and data downlink capability. DAR is valid until cloud free images of the whole target area are obtained. HISUI DAR categories (draft) l Important Observation Engineering request Calibration / Validation Emergency / Disaster l Verification Observation (local area) Individual application / verification sites l Priority Region Mapping Oil/gas/metal resource exploration regions l Global Mapping (using remaining resources) All land surface and shallow coastal regions Tentative DARs for Verification Observation Areas for Priority Region and Global Mapping

15 HISUI Long-term (3 years) Operation Simulation Setup Cloud assessment and HISUI observation rescheduling 10 GByte/day daily transmission 8 minute / orbit excluding warming up / shut-down time, 3 segments HSRU A) Emergency / Calibration Obs. B) Verification Observation JEM EF MDP JEM PM MDR-PM 410 km altitude Terra MODIS global daily 1km cloud mask for three years 1 deg attitute fluctuation C) Priority Region Mapping D) Global Mapping 0.4 Gbps 26 Gbyte/ orbit 20 km swath HISUI : A Japanese Spaceborne Hyperspectral Remote Sensing Mission 80 Mbps (Max.) 300 GByte/day media transport several times per year IGARSS 2017, July 23-28, 2017, Fort Worth, Texas, US

16 HISUI Long-term (3 years) Operation Simulation Results Areal percentage of cloud free observation (Sun elevation > 40 ) Tentative 200 Verification Targets Months since launch Number of Cloud-free Observation Cloud-free observation SVA > 40, Nadir only) 1 time 2 times... No cloud-free observation No planned observation Completed targets* Sun Elevation > 40, Cloud free > 95% 1st year 1 2nd year 51 3rd year 113** *Target size = 100 x 100 km **3rd year = 175 with Sun Elevation > 30 / Cloud free > 85 %. HISUI : A Japanese Spaceborne Hyperspectral Remote Sensing Mission Cloud-free coverage in three years : Priority Regions 90 % Global Mapping 70 % (Source : 170616) IGARSS 2017, July 23-28, 2017, Fort Worth, Texas, US

17 Other Earth Observing Instruments onboard ISS around 2020 GEDI : Provide the first global, high-resolution observations of forest vertical structure using a lidar. To be deployed on the ISS in 2019 ECOSTRESS : Measure the temperature of plants and use that information to better understand how much water plants need and how they respond to stress. To be deployed on ISS in 2018 DESIS : Provide VNIR hyperspectral data with high spectral resolution (2.3 nm). One of instruments attached to MUSES. To be deployed on ISS in 2017. OCO-3 : Investigate the distribution of atmospheric carbon dioxide and Fluororescence from terrestrial vegetation. HISUI : A Japanese Spaceborne Hyperspectral Remote Sensing Mission IGARSS 2017, July 23-28, 2017, Fort Worth, Texas, US

Synergy of Five Earth Observing Instruments onboard ISS 18 ECOSTRESS land surface temperature emissivity height, volume, leaf area index GEDI OCO-3 water use efficiency surface roughness aboveground biomass HISUI solar induced fluorescence, atmospheric column CO 2 carbon residence time root depth carbon use efficiency carbon sink potential, disturbance ecology canopy functional traits plant stress (temp & water) evapotranspiration species canopy traits, nutrients DESIS Cross Cal. Butterfly diagram by J. B. Fisher light use efficiency, nutrient use efficiency

19 HISUI Data Policy and Research Announcement l HISUI data policy is under consideration. l For collaborators and research announcement investigators, priority observation, priority downlink, and distribution for their requested areas will be given for free. l The archived data will be provided for free to other science users with some conditions (e.g. submission of reports to HISUI Project). l HISUI Research Announcement will be issued for domestic users first. HISUI RA for overseas users will be issued later.

20 Thank you Contact : matsunag@nies.go.jp