Himawari 8: Experiences and Lessons Learned. Daisaku Uesawa Meteorological Satellite Center (MSC) Japan Meteorological Agency (JMA)

Similar documents
Introduction to Himawari-8

4.1 New Generation Satellite Data and Nowcasting Products: Himawari

Overview of Himawari-8/9

Benefits of the new-generation Himawari-8 geostationary satellite for the Asia-Pacific region. Toshihiko HASHIDA Japan Meteorological Agency (JMA)

CURRENT STATUS OF OPERATIONAL WIND PRODUCT IN JMA/MSC

Assimilation of Himawari-8 data into JMA s NWP systems

Himawari 8/9 data distribution/dissemination plan

Status and Plans of Next Generation Japanese Geostationary Meteorological Satellites Himawari 8/9

JMA Contribution to SWFDDP in RA-V

1. History and Current Status

Rapidly Developing Cumulus Area RDCA detection using Himawari-8 data

ESTIMATION OF THE SEA SURFACE WIND IN THE VICINITY OF TYPHOON USING HIMAWARI-8 LOW-LEVEL AMVS

STATUS OF JAPANESE METEOROLOGICAL SATELLITES AND RECENT ACTIVITIES OF MSC

FUTURE PLAN AND RECENT ACTIVITIES FOR THE JAPANESE FOLLOW-ON GEOSTATIONARY METEOROLOGICAL SATELLITE HIMAWARI-8/9

JMA s Cooperation with

Preparation for Himawari 8

Current status and plans of JMA operational wind product

Monitoring Sand and Dust Storms from Space

JMA s atmospheric motion vectors

TC intensity estimation using Satellite data at JMA

Inter-comparison MTSAT-2 & Himawari-8

JMA s ATMOSPHERIC MOTION VECTORS In response to Action 40.22

Review of AOMSUC-9 Country Report. by : Riris Adriyanto BMKG Indonesia

DATA BROWSING AND ANALYSIS TOOL FOR MTSAT/LRIT. Ryoji Kumabe

An Introduction to Himawari-8/9 Japan s New-Generation Geostationary Meteorological Satellites

Recent Improvement of Integrated Observation Systems in JMA

How to display RGB imagery by SATAID

Improvement of Himawari-8 observation data quality

Development of volcanic ash product for the next-generation Japanese Geostationary Meteorological Satellite Himawari-8

RECENT UPGRADES OF AND ACTIVITIES FOR ATMOSPHERIC MOTION VECTORS AT JMA/MSC

RECENT ADVANCES TO EXPERIMENTAL GMS ATMOSPHERIC MOTION VECTOR PROCESSING SYSTEM AT MSC/JMA

Ryuji Yamada Tokyo Climate Center Japan Meteorological Agency E mail: URL:

JMA volcanic ash Test bed. Japan Meteorological Agency Meteorological Satellite Center Hidehiko MURATA

REGIONAL SATELLITE DATA REQUIREMENTS AND DATA EXCHANGE UPDATES ON SATELLITE-RELATED ACTIVITIES IN RA V

A Questionnaire on the Utilization of Satellite Data from the New Generation of Geostationary Meteorological Satellites

WMO Coordination Group on Satellite Data Requirements for Region III and IV Sept 5-8, 2016 Willemstad, Curaçao

NOWCASTING PRODUCTS BASED ON MTSAT-1R RAPID SCAN OBSERVATION. In response to CGMS Action 38.33

MSGVIEW: AN OPERATIONAL AND TRAINING TOOL TO PROCESS, ANALYZE AND VISUALIZATION OF MSG SEVIRI DATA

Overview on GK-2A Data and Products

Introduction of JMA VLab Support Site on RGB Composite Imagery and tentative RGBs

Updates on Chinese Meteorological Satellite Programs

Advanced Geostationary Observations for the OzEWEX Community. Leon Majewski Bureau of Meteorology

BMKG UPDATES ON SATELLITE-RELATED ACTIVITIES IN RA V

AOMSUC-6 Training Event

" The usefulness of RGB products: the perspective of the Australian Bureau of Meteorology "

Day Snow-Fog RGB Detection of low-level clouds and snow/ice covered area

Himawari-8 RGB product use and development amongst Australian / RAV / RAII stakeholders: the Australian VLab Centre of Excellence perspective

Ash RGB Detection of Volcanic Ash

6 th ET SAT meeting, April 12 15, Geneva, Switzerland Satellite Programme of KMA

Himawari-8 True Color RGB

WEATHER AND CLIMATE EXTREMES MONITORING BASED ON SATELLITE OBSERVATION : INDONESIA PERSPECTIVE RIRIS ADRIYANTO

RGB Experts and Developers Workshop - Introduction Tokyo, Japan 7-9 Nov 2017

Country Report - Singapore

AN OBSERVING SYSTEM EXPERIMENT OF MTSAT RAPID SCAN AMV USING JMA MESO-SCALE OPERATIONAL NWP SYSTEM

JMA Contribution to SWFDDP in RAV. (Submitted by Yuki Honda and Masayuki Kyouda, Japan Meteorological Agency) Summary and purpose of document

Country scale solar irradiance forecasting for PV power trading

MSG system over view

ATMOSPHERIC MOTION VECTORS DERIVED FROM MSG RAPID SCANNING SERVICE DATA AT EUMETSAT

Joint RA II/V Workshop on WIGOS for DRR - The Jakarta Declaration - (12-14 October, Jakarta, Indonesia) NMSC/KMA

Satellite observation of atmospheric dust

WMO 2016 Survey on the Use of Satellite Data

Using the CRTM and GOES Observations to Improve Model Microphysics

Tonga Country Report

New possibilities for access and utilisation of EUMETSAT data and products through DAWBEE programme

Day Microphysics RGB Nephanalysis in daytime. Meteorological Satellite Center, JMA

NUMERICAL EXPERIMENTS USING CLOUD MOTION WINDS AT ECMWF GRAEME KELLY. ECMWF, Shinfield Park, Reading ABSTRACT

Himawari-8 BUFR Development for Winds Processing and Radiances Cloud Mask, Cloud Phase, Cloud Height

COUNTRY REPORT INDONESIA

The use of Direct Broadcast Processing System in Poland

VALIDATION OF INSAT-3D DERIVED RAINFALL. (Submitted by Suman Goyal, IMD) Summary and Purpose of Document

(Country Report) [1]

Current Status of COMS AMV in NMSC/KMA

CSPP Geo. CSPP/IMAPP Users Group Meeting 2015 Darmstadt, Germany 15 April 2015

GENERATION OF HIMAWARI-8 AMVs USING THE FUTURE MTG AMV PROCESSOR

NWP SAF AMV monitoring: the 7th Analysis Report (AR7)

Preparing for NOAA s Next Generation GOES-R & JPSS

Satellite Data Utilisation at the National Meteorological Service of New Zealand (MetService) Wim van Dijk November 2015 AOMSUC6 SC 2-4

TCC News 1 No. 29 Summer 2012

Towards the assimilation of all-sky infrared radiances of Himawari-8. Kozo Okamoto 1,2

The current status of FY-3D. (Submitted by Xiang Fang, CMA) Summary and Purpose of Document

KOREA GEOSTATIONARY SATELLITE PROGRAM : COMMUNICATION, OCEAN, AND METEOROLOGICAL SATELLITE(COMS)

Fog detection product

22nd-26th February th International Wind Workshop Tokyo, Japan

Follow-up to WMO 2012 Survey on the Use of Satellite Data: Feedback by RA I Members

Himawari-8 BUFR Development for Winds Processing and Radiances - Packaging for Algorithm Integration Team (AIT)

RA II WIGOS Project Newsletter

Bias correction of satellite data at Météo-France

Spatiotemporal Variability Characteristics of Clear-Sky Land Surface Temperature in Urban Areas of Japan Observed by Himawari-8

The 5th Meeting of the Coordinating Group of the RA II WIGOS Satellite Project

Non-meteorological Applications for Next Generation Geostationary Meteorological Satellites

RA II WIGOS Project Newsletter

Recommendations from RA III/RA IV SDR -2 Training Task Team (SDR-TTT)

Wildfire WG Monitoring of Heat Related Disaster using Volcano and Wildfire monitoring system

Shuhei Maeda Climate Prediction Division Global Environment and Marine Department Japan Meteorological Agency

Status report on the current and future satellite systems by CMA. Presented to CGMS46-CMA-WP-01, Plenary session, agenda item D.1

A Review of the Australian VLab Centre of Excellence National Himawari-8 Training Campaign. AOMSUC-6 Conference Session

UPDATES IN THE ASSIMILATION OF GEOSTATIONARY RADIANCES AT ECMWF

EARS-ATMS, EARS-CrIS and EARS-VIIRS: Three New Regional Services

Report on the SCOPE-Nowcasting Pilot Projects January 2017

Status report of JMA and calibration policy for AHI. Meteorological Satellite Center of JMA Arata OKUYAMA and Toshiyuki KURINO

Transcription:

Himawari 8: Experiences and Lessons Learned Daisaku Uesawa Meteorological Satellite Center (MSC) Japan Meteorological Agency (JMA) IPET SUP 2, GENEVA, SWITZERLAND, 23 26 FEBRUARY 2016 1

Himawari-8 operation initiated at 02:00 UTC on 7 th July 2015. 2

Himawari 8/9 Advanced Himawari Imager (AHI) solar panel communication antennas Geostationary position Attitude control Communication Around 140.7 E 3 axis attitude controlled geostationary satellite 1) Raw observation data transmission Ka band, 18.1 18.4 GHz (downlink) 2) DCS International channel 402.0 402.1 MHz (uplink) Domestic channel 402.1 402.4 MHz (uplink) Transmission to ground segments Ka band, 18.1 18.4 GHz (downlink) 3) Telemetry and command Ku band, 12.2 12.75 GHz (downlink) 13.75 14.5 GHz (uplink) Himawari 8 began operation on 7 July 2015, replacing the previous MTSAT 2 operational satellite. MTSAT 2 observation parallel to Himawari 8 will terminate on 24 March 2016 at 00 UTC. Himawari 9 is planning to be launched in 2016 to be backup. 2005 2006 2007 2008 2009 2010 2011 2012 2013 2014 2015 2016 2017 2018 2019 2020 2021 2022 2023 2024 2025 2026 2027 2028 2029 MTSAT 1R MTSAT 2 operation standby standby operation standby Himawari 8 Himawari 9 a package purchase manufacture manufacture launch launch operation standby standby operation standby 3

Himawari 8/9 Data Dissemination/Distribution Himawari 8/9 Communication Satellite (CS) HimawariCast users will need to prepare for the transition from JCSAT 2A to JCSAT 2B during a dual operation period (approximately one week) of JCSAT 2A and JCSAT 2B. For up to date information, see http://www.data.jma.go.jp/mscweb/en/himawari89/himawari _cast/himawari_cast.html raw data HimawariCast service HRIT files, SATAID files C band antenna LNB CS Operator All imagery (full data) DVB S2 receiver PC & software JMA HimawariCloud service NMHSs Users 4

Timeline of HimawariCloud HSF Imagery data Distribution time is rounded in minutes based on the past record at "peak time" (local noon after spring equinox) Time (min) Himawari-8 Observation/ Raw Image Processing at Ground Station Level1 Image Processing at JMA/MSC HSF Imagery Transfer from JMA/MSC to HimawariCloud Vendor 50 0 10 level 0 2 min. 4min. Distribution 10 of the HSF Imagery into 10 Segments 16 band data files are included in each segment HSF Imagery ready to pull from HimawariCloud 7min. 4 5 min. The first Segment Imagery Data will be ready to be pulled within 7 min. after observation start time (the last Segment within 4 5 min. after observation end time) 5

Timeline of HimawariCast HRIT Imagery data Dissemination time is rounded in minutes based on the past record at "peak time" (local noon before spring equinox) Time (min) 50 00 10 Himawari 8 Observation Raw Imagery: Transfer from Receiving Station to JMA/MSC HRIT Imagery: Transfer from JMA/MSC to HimawariCast Vendor level 0 Dissemination of the HRIT Imagery into 10 Segments 14 band data files are included in each segment HRIT Imagery: Uplink from HimawariCast Vendor to Telecommunication Satellite HRIT Imagery: Downlink from Telecommunication Satellite to HimawariCast Receiving System after decoded 8 min. 7min. The first segment data is to be disseminated within 8 min. after observation start time (the last segment data within 7 min. after observation end time) 6

Image Navigation for band 13 (10.4µm) Himawari 8 Image Navigation accuracy estimated from coast line analysis Image navigation accuracy is mostly less than 0.3 pixel Scale: one pixel See Okuyama et al. (2015) for details. 7

Validation of IR Bands Calibration based on GSICS inter calibration Radiance Tb Bias Brightness Temp. (Tb) Tb Bias * Standard Radiance was calculated under clear sky condition over the ocean in nighttime by RTTOV 11.2 with US standard atmosphere (1976) See Okuyama et al. (2015) for details. 8

Himawari Operation Status and Imagery Calibration/Navigation Monitoring Himawari 8 Operation Status Imagery Calibration Imagery Navigation http://www.jma net.go.jp/msc/en/index.html 9

RGBs from Himawari 8 AHI Natural Color Day Microphysics Night Microphysics True Color Day Snow Fog Day Convective Storm Dust Airmass http://www.data.jma.go.jp/mscweb/data/himawari/sat_img.php?area=fd_ 10

High resolution Cloud Analysis Information (HCAI) Latitude-Longitude grid in 0.02 degree; nearly equal to full resolution of IR bands Provides cloud mask, type and top height Produced hourly Provided to NMHSs: Indonesia, Malaysia, Myanmar and Vietnam (in progress) ATBD to be published in March 2016 Cloud Mask Cloud Top Height Clear Mixed Cloud 11

Atmospheric Motion Vector (AMV) Assimilated into NWP Produced hourly Provided to NWP centers via GTS since 3 July 2015 MTSAT-2 AMV will terminate on 24 March 2016 at 00 UTC 12

Clear Sky Radiance (CSR) Assimilated into NWP Produced hourly Provided to NWP centers via GTS since 3 July 2015 MTSAT-2 CSR will terminate on 24 March 2016 at 00 UTC. ATBD to be published in March 2016 13

Introducing VOLCAT into JMA/MSC Case: Kuchinoerabujima, Japan, 29 May 2015 Ash Top Height AOD Eruption Column over 31400FT (9600 m a.s.l.) 14

AOMSUC 6 Tokyo, Japan, 9 13 November 2015 Over 170 attendees from 37 countries, incl. scientists, satellite users and operators. Three days of plenary sessions and two days of training. The plenary sessions featured 26 country reports from NMHSs. The meeting summary and all presentation materials are provided at http://www.jma net.go.jp/msc/en/aomsuc6/index.html 15

Training course for NMHSs with HimawariCast receiving system (a) (b) (c) (a) and (b) at Bangladesh. (c) at Malaysia. JMA is offering a technical training course for Himawari 8 data utilization to NMHSs with HimawariCast receiving system. The NHMSs include nine countries in RA II and RA V (Bangladesh, Cambodia, Micronesia, Myanmar, Palau, Papua New Guinea, Thailand, Tuvalu and Viet Nam), which have installed their receiving systems through a WMOmanaged project with the help of JMA. 16

Lessons Learned 1/3 High data volume The multi band, high frequency and high resolution observations of Himawari 8 results a dramatic increase in data volume compared to previous meteorological satellites. Some NMHSs have difficulties to obtain Himawari 8 full spec data in real time with satisfactory speed through HimawariCloud, which requires high speed Internet. Therefore, JMA is providing alternative data distribution/dissemination services such as HimawariCast via a communication satellite. This implies that ensuring an environment for data distribution, processing and storage is critically important for data provider and users of new generation meteorological satellites. 17

Lessons Learned 2/3 Parallel observation/data distribution MTSAT 2 has been a backup satellite since Himawari 8 became operational on 7 July 2015. JMA will maintain MTSAT 2 observation and its data/product distribution parallel to Himawari 8 until 24 March 2016. The 9 month parallel distribution has been helpful to users in the transition from MTSAT 2 to Himawari 8. A long time parallel distribution would be crucial because some users may take times to start to use data from new generation meteorological satellites. 18

Lessons Learned 3/3 Collaboration on product development It is recognized from AOMSUC 6 that some NMHSs in RA II and RA V have already used satellite data extensively and others show willingness to develop products from Himawari 8 data by themselves. It would become more important to create a scheme for encouraging cooperation on product development between satellite operators and users. 19

Himawari Publication by JMA/MSC staff Bessho, K., K. Date, M. Hayashi, A. Ikeda, T. Imai, H. Inoue, Y. Kumagai, T. Miyakawa, H. Murata, T. Ohno, A. Okuyama, R. Oyama, Y. Sasaki, Y. Shimazu, K. Shimoji, Y. Sumida, M. Suzuki, H. Taniguchi, H. Tsuchiyama, D. Uesawa, H. Yokota, and R. Yoshida, 2016: An introduction to Himawari 8/9 Japan's newgeneration geostationary meteorological satellites. J. Meteor. Soc. Japan, 94, doi:10.2151/jmsj.2016 009. Okuyama, A., A. Andou, K. Date, K. Hosaka, N. Mori, H. Murata, T. Tabata, M. Takahashi, R. Yoshino, K. Bessho, 2015: Preliminary validation of Himawari 8/AHI navigation and calibration, Proc. SPIE 9607, Earth Observing Systems XX, 96072E (8 September 2015); doi: 10.1117/12.2188978 Himawari 8 product ATBDs (MSC Technical Note, no. 61) http://www.data.jma.go.jp/mscweb/en/product/library/note/index.html (To be published in March 2016) 20