Overview of Long- term Observa3ons of the Global Water Cycle by the Advanced Microwave Scanning Radiometer (AMSR) Series

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Overview of Long- term Observa3ons of the Global Water Cycle by the Advanced Microwave Scanning Radiometer (AMSR) Series M. Kachi 1), T. Maeda 1), N. Ono 1), M. Kasahara 1), N. Ebuchi 1),2), and H. Shimoda 3) 1) Japan Aerospace Explora3on Agency 2) Hokkaido University 3) Tokai University 10 May, 2018 8th Interna3onal GEWEX Science Conference

Brief History of Passive Microwave Imagers Spaceborne Passive Microwave Imagers Started by US and USSR in 1960 s: Mariner- 2, Skylab, Nimbus, Cosmos, Seasat Con3nuous Earth observa3on started by Nimbus- 7/SMMR (1978~) Series instruments: DMSP SSM/I series (1987~Current) and its successor TMI on US- Japan TRMM (1997-2014) is unique due to the lower al3tude (thus finer spa3al resolu3on, non- sun synchronous orbit, and simultaneous observa3on with Precipita3on Radar) Japanese Passive Microwave Imager MOS- 1/MSR (1987): Engineering and scien3fic development ADEOS- II/AMSR (2002-2003): Global observa3on, but just 10 months EOS Aqua/AMSR- E (2002-2011): Con3nued more than 9- years observa3on GCOM- W/AMSR2 (2012- present): Succeed AMSR- E observa3on in A- train AMSR2 follow- on sensor (AMSR3): Currently planning to be installed on the GOSAT- 3 2

Development of AMSR Series Sensor MOS- 1/MSR ADEOS- II/AMSR Aqua/AMSR- E GCOM- W/AMSR2 Coverage Direct receive only Global Global Global Swath 317km 1600km 1450km 1617km Frequencies (GHz) 2 (23,31) 9 (6.9,10,18,23, 36,50,52,89) 6 (6.9,10,18,23, 36,89) Polariza3on Mixed V and H V and H V and H V and H Antenna Size 0.5m 2.0m 1.6m 2.0m 7 (6.9,7.3,10,18, 23,36,89) Spa3al Res. 23km @31GHz 8x14km @36GHz 8x14km @36GHz 7x12km @36GHz AMSR3? 1987 2002 2002 2012 GCOM-W 3

Overview of GCOM- W and AMSR2 Instrument Al@tude Orbital inclina@on Local sun @me at Ascending node Launch vehicle Advanced Microwave Scanning Radiometer 2 (AMSR2) 705 km 98.2 deg 13 :30 H- IIA Launch May 18, 2012 Designed life@me 5 years ü Successor of Aqua/AMSR- E (launched in May 2002), providing con3nuous data for climate studies and opera3onal applica3ons ü Joining A- train constella3on (same as Aqua) and also GPM constella3on ü Carrying AMSR2, a mul3- polariza3on and mul3- frequency microwave imager ü Observing various water- related ECVs at high spa3al resolu3on ü Improving on- board calibra3on target has resulted reduc3on of annual TB varia3on due to calibra3on and improvement of TB stability ü Achieved designed mission life (5- year) on May 18, 2017, and con3nues observa3on ü Enough fuels to keep current orbit for more than 15 years 4

hmps://gcom- w1.jaxa.jp/ G E O Product Coverage Resolu3on Brightness Temperature Total Precipitable Water Cloud Liquid Water Precipita3on Sea Surface Temperature Sea Surface Wind Speed Sea Ice Concentra3on AMSR2 Standard Products Release Accuracy Global 5-50km ±1.5K ±1.5K Global Ocean Global Ocean Global (except high la3tude) Global Ocean Global Ocean Ocean in high la3tude 15km 15km 15km ±3.5 kg/ m 2 ±0.10 kg/ m 2 Ocean ±50 % Land ±120 % Standard Valida3on Target Accuracy Accuracy Result ±1.0K (bias) ±0.3K(random) Latest version < 1.4 K Ver.2.2 ±3.5 kg/ m 2 ±2.0 kg/m 2 1.5 kg/m 2 Ver.2.1 ±0.05 kg/ m 2 ±0.02 kg/m 2 0.04 kg/m 2 Ver.2.1 Ocean ±50 % Land ±120 % 50km ±0.8 ºC ±0.5 ºC Ocean ±20 % Land ±80 % ±0.2 ºC (zonal mean) Ocean 48% Land 86% 0.5 ºC < 0.2 ºC (zonal) Ver.2.1 Ver.3.0 15km ±1.5 m/s ±1.0 m/s ±1.0 m/s 1.0 m/s Ver.3.0 15km ±10 % ±10 % ±5% 9 % Ver.3.0 Snow Depth Land 30km ±20 cm ±20 cm ±10 cm 18 cm Ver.2.1 Soil Moisture Land 50km ±10 % ±10 % ±5 % 4 % Ver.3.0 5

hmp://suzaku.eorc.jaxa.jp/gcom_w/research/resdist_j.html AMSR2 Research Products and Accuracy Products Area Resolu3on Target accuracy Status All- weather sea surface ± 7 m/s for strong 4.07 m/s Ocean 60 km wind speed wind (>17m/s) (Ver.3.0) High- resolu3on 0.55 ºC Ocean 30 km ± 0.8 ºC (10- GHz) SST (Ver.3.0) Soil moisture and soil moisture: ± 8% vegeta3on water Africa, Australia 25 km vegeta3on water: Under development content based on the (at first stage) ± 1 kg/m land data assimila3on 2 Land surface temperature Vegeta3on water content High resolu3on sea ice concentra3on Thin ice detec3on Sea ice moving vector Land 15 km forest area: ± 3 ºC nondense vegeta3on: ± 4 ºC 3 ºC (forest) 4 ºC (nondense vegeta3on) (Ver.1.0) Land 10 km ± 1 kg/m 2 Under evalua3on Ocean in high la3tude Okhotsk sea (at first stage) Ocean in high la3tude 5 km ± 15 % Under evalua3on 15 km ± 80 % Under evalua3on 50 km 2 components: 3 cm/s Under evalua3on Released to public 6

AMSR2 Land Surface Temperature Product Algorithm provided by Tom Jackson (USDA) Retrieval of LST by single equa3on using 36 GHz V TB Equa3on is obtained by using linear regression between AMSR2 LST and LST at ground observa3on sites in Europe and US Observing top of forest over forest area Capable to obtain frequent LST for both day & night Available from hmp://suzaku.eorc.jaxa.jp/gcom_w/research/ resdist_j.html Detailed valida3on results are also available DAY June 2017 NIGHT June 2017 7

AMSR2 All- weather Sea Surface Wind Speed Algorithm provided by Akira Shibata (RESTEC) All- weather wind speed research product can observe high wind speed area under heavy rainfall AMSR2 observa3on of Super Typhoon NORU in 2017 (No.5) AMSR2 Rainfall All- weather wind speed Himawari- 8/AHI RGB composite at 5Z on Aug. 4, 2017 Anima3on from Jul. 30 to Aug. 4, 2017 8

Applica3on in Merged Global SST SST by Himawari- 8 (2016.1.25) Many meteorological agencies, such as JMA, UK MetOffice, ABoM, and NOAA, produce daily global SST by merging satellite and in- situ data for inputs to numerical models and monitor sea status. All- weather SST by AMSR2 plays significant role in merged SST when IR imagers on board geosta3onary and polar- orbital satellites cannot observe SST because of clouds. SST by AMSR2 (2016.1.25) IR imager (upper) cannot observe SST under clouds, but AMSR2 (lower) can observe. (Image provided by BoM) 9

Applica3on in Sea Ice Monitoring 28 26 24 22 20 1980's Average 1990's Average 2000's Average 2006 (2nd Lowest) 2011 (3rd Lowest) 2016 2017 (1st Lowest) 2018 Sea Ice Concentra3on over Antarc3c records MINIMUM extent on Mar. 10, 2017. 18 16 14 1- Jan 12- Jan 23- Jan 3- Feb 14- Feb 25- Feb 7- Mar 18- Mar 29- Mar 9- Apr 20- Apr 1- May 12- May 23- May 3- Jun 14- Jun 25- Jun 6- Jul 17- Jul 28- Jul 8- Aug 19- Aug 30- Aug 10- Sep 21- Sep 2- Oct 13- Oct 24- Oct 4- Nov 15- Nov 26- Nov 7- Dec 18- Dec 29- Dec Seasonal varia3on of Sea Ice Extent over Arc3c and Antarc3c. Each line indicates each year (thick) or 10- year average (thin). Blue: 2017, Red: 2018. Sea Ice Concentra3on over Arc3c records 6th minimum extent on Sep. 9, 2017. Global: Records the minimum in Feb. 2018 Arc3c: Records the minimum in Sep. 2012 Antarc3c: Records the minimum in Mar. 2017 JASMES (JAXA): hmp://kuroshio.eorc.jaxa.jp/jasmes/climate/ ADS (NIPR): hmps://ads.nipr.ac.jp/vishop/#/monitor 10

AMSR- E Reprocess Product Status To provide consistent dataset between AMSR2 and AMSR- E for long- term analysis, JAXA has reprocessed AMSR- E product applying the latest AMSR2 algorithms. Level 1 & 3 (brightness temperature): Public release from G- Portal (May- June 2018) Level 1B & 1R in AMSR2 format (HDF5) Level 2 & 3 (geophysical parameters): Planning public release Applying the current (latest) AMSR2 L2 algorithms and format (HDF5) SST Total Precipitable Water 11

Status of AMSR2 follow- on Mission The Roadmap for the Basic Plan on Space Policy was revised in Dec. 2017: The government should conduct development research on AMSR2 s successor sensor (AMSR3) on condi3on that hosted payload with GOSAT- 3 (Green- house gases Observa3on SATellite- 3) in JFY2018. The government approved the budget for JFY 2018 to built and test prototypes of AMSR3 s components. Currently in Mission Defini3on Phase (Candidates of Pre- Project) Collabora3ng with GOSAT- 2 project team on the feasibility study on the hosted payload capability along with mission concept study. Scien3fic synergies between AMSR2 f/o and GOSAT- 3 are discussed among science communi3es. Mission requirements for opera3onal u3liza3ons and science are also discussed under the GCOM user commimee. Mission Defini@on Review (MDR) is currently on going 12

Summary JAXA has developed series of PMW instruments, MSR, AMSR, AMSR- E, and AMSR2, resulted ~15- year archive of PMW data with wide- swath and high- resolu3on by C- to- W band channels AMSR, AMSR- E, and AMSR2 products are distributed to public via internet. Transfer to G- Portal (hmps://www.gportal.jaxa.jp/gp/) 8 standard geophysical parameters and 3 research products are available AMSR- E reprocessing products applying AMSR2 format and algorithms are in prepara3on, expected to develop CDRs AMSR2 follow- on sensor (AMSR3) is currently proposed to be installed on GOSAT- 3 and receive JFY2018 budget to built and test prototypes of the sensor s components Feasibility study on the hosted payload capability along with mission concept study with GOSAT- 2 project team The op3mum orbit for both missions has to be discussed Mission Defini3on Review (MDR) of AMSR2 follow- on sensor will be the next step to move forward S3ll has a risk of gaps between AMSR2 and follow- on even if development starts in JFY2018 13