Preparation for FY-4A. (Submitted by Xiang Fang, CMA)

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WORLD METEOROLOGICAL ORGANIZATION COMMISSION FOR BASIC SYSTEMS OPEN PROGRAMME AREA GROUP ON INTEGRATED OBSERVING SYSTEMS EXPERT TEAM ON SATELLITE UTILIZATION AND PRODUCTS ET-SUP-8/Doc. 10.3 (2.IV.2014) ITEM: 10 EIGHTH SESSION GENEVA, SWITZERLAND, 14-17 APRIL 2014 Original: ENGLISH Preparation for FY-4A (Submitted by Xiang Fang, CMA) Summary and Purpose of Document This document gives a brief introduction of FY-4A, mainly including instruments, observation mode and products. FY-4A is scheduled for launch in 2016 and will provide data and products to users. ACTION PROPOSED The eighth session is invited to discuss developing the application tests of FY 4A data.

ET-SUP-8/Doc. 10.3, p. 2 DISCUSSION Introduction 1. As the first satellite of the China next generation geostationary satellite series, FY-4A is scheduled for launch in 2016. Compared with FY-2, there are significant improvements in instruments performance. Table 1: Advancement of FY-4A compared with FY-2 FY-4A(EXP) FY-2(OP) Stabilization Three-axis Spin Designed Life 5~7 Years 4 Years Observation efficiency 85% 5% Observation Mode Imaging +Sounding + Lightning Mapping Imaging Only Main Instruments AGRI :14 channels SSP Resolution:0.5~4Km Global imaging:15min Flexible imaging :2D GIIRS:913 channels SSP Resolution:16Km Spectral Resolution: 0.8,1.6cm-1 LMI SSP Resolution:7.8Km SEP High energy particles Magnetic field VISSR: 5 channels SSP Resolution:1.25~5Km Global imaging:30min Flexible imaging :1D N/A N/A SEM High energy particles Solar X ray fluxes 2. FY-4A has four observation instruments, including: 1) GIIRS: Geo. Interferometric Sounder 2) AGRI: Advanced Geosynchronous Radiation Imager 3) LMI: Lightning Mapping Imager 4) SEP: Space Environment Package AGRI, the primary instrument of FY-4A, has 14 channels and two observation modes. The temporal resolutions are 1-5 minutes over regional domain and 15 minutes over full-disk domain. The specific parameters of AGRI are shown in table 2.

ET-SUP-8/Doc. 10.3, p. 3 Table 2. The performance of AGRI onboard FY-4A FY-4A AGRI Channel Band Spatial Resolution Sensitivity Main Application Visible & 0. 45~0.49 1 S/N 90 (ρ=100%) Aerosol Near- 0.55~0.75 0.5~1 S/N 200 (ρ=100%) Fog, Cloud S/N 5(ρ=1%)@0.5K 0.75~0.90 1 Vegetation m Short-wave 1.36~1.39 2 S/N 200 (ρ=100%) Cirrus S/N 200 (ρ=100%) 1.58~1.64 2 Cloud,Snow 2.1~2.35 2~4 Cirrus,Aerosol Mid-wave 3.5 ~ 2 NE T 0.7K(300K) Fire 4.0(High) Water Vapor Long-wave 4 NE T 0.2K(300K) Land surface 3.5 ~ 4.0(Low) * 5.8~6.7 4 NE T 0.3K(260K) WV 6.9~7.3 4 NE T 0.3K(260K) WV 8.0~9.0* 4 NE T 0.2K(300K) WV,Cloud 10.3~11.3* 4 NE T 0.2K(300K) SST 11.5~12.5* 4 NE T 0.2K(300K) SST 13.2~13.8* 4 NE T 0.5K(300K) Cloud,WV GIIRS can be used for vertical atmospheric sounding and it is the first high-resolution sounding sensor onboard the geostationary satellite. There are two observation modes of GIIRS. One mode is designed for China area, whose temporal resolution is 55 minutes and the coverage is 4500 * 4500 km. The other observation mode is Meso-Scale mode, whose temporal resolution is 30 minutes and the coverage is 1000 * 1000 km.the specific parameters of GIIRS are shown in table 3. Table 3. The performance of GIIRS onboard FY-4A Spectral Parameters (Normal mode) Spatial Resolution Operational Mode FY-4A (R&D) Range Resolution Channels LWIR: 700-1130 Cm -1 0.8 538 S/MIR:1 650-2250Cm -1 1.6 375 VIS : 0.55-0.75 μm 1 LWIR/S/MIR : 16Km SSP VIS : 2Km SSP China area 5000 5000 Km2 Mesoscale area 1000 1000 Km2

ET-SUP-8/Doc. 10.3, p. 4 Temporal Resolution China area <1 hr Mesoscale area <½ hr Sensitivity (mw/m2sr cm-1) Calibration accuracy Calibration accuracy Quantization Bits LWIR: 0.5-1.1 S/MIR: 0.1-0.14 VIS: S/N>200(ρ=100% ) 1.5k (3σ) radiation 10 ppm (3σ) spectrum 13 bits Lighting Mapping Imager(LMI) can detect the present of space-based lighting, which is useful for early predictions of storms and severe weather events. The specific parameters of LMI are shown in table 4. Table 4. The performance of LMI onboard FY-4A Spatial resolution Sensor size Wave-length at center Band-width about 6 km at SSP 400 300 2 777.4nm 1nm±0.1nm Detection efficiency >90% False-alarm ratio <10% Dynamic range >100 SNR >6 Frequency of frames Quantization 2ms(500 Frames per sec.) 12 bits Measurement Error 10% 3. Products FY-4A will provide 27 kinds of quantitative products, and the detail is illustrated in Table 5. All algorithm design and development have already completed. The next step plans to use simulation data to validate the reliability of each algorithm. Table 5. All products of FY-4A No. Products No. Products 1 Clear Sky Masks 15 Legacy Vertical Moisture Profile

ET-SUP-8/Doc. 10.3, p. 5 2 Cloud Top Height 16 Ozone Profile & Total 3 Cloud Top Temperature 17 Derived Motion Winds 4 Cloud Top Pressure 18 Lightning Detection 5 Cloud Optical Depth 19 Rainfall Rate/QPE 6 Cloud Liquid Water 20 Convective Initiation 7 Cloud Particle Size Distribution 21 Tropopause Folding Turbulence Prediction 8 Aerosol Detection 22 Sea Surface Temperature (skin) 9 Aerosol Optical Depth 23 Fire/Hot Spot Characterization 10 Downward Longwave Radiation: Surface 24 Land Surface (Skin) Temperature 11 Upward Longwave Radiation: TOA 25 Land Surface Emissivity 12 Upward Longwave Radiation: Surface 26 Snow Cover 13 Reflected Shortwave Radiation: TOA 27 Space weather products 14 Downward Shortwave Radiation: Surface