How to display RGB imagery by SATAID

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How to display RGB imagery by SATAID Akihiro SHIMIZU Meteorological Satellite Center (MSC), Japan Meteorological Agency (JMA) Ver. 2015110500

RGB imagery on SATAID SATAID software has a function of overlapping colored satellite images. The function including RGB imagery has enhanced in latest version. Note that difference images for composite and appropriate configuration settings are required to display RGB imagery on SATAID.

Initial Configuration 1 Make sure of the check mark at Save value of option. 2 Hold down Ctrl key and select Register setup.

Initial Configuration Make sure of the check mark at Diff. If no check mark, the difference images don t create by SATAID. Settings of difference images(s1 ~ S8) Settings of upper and lower ranges (kelvin or albedo) Settings of loading images Settings of upper and lower ranges Images of respective bands are identified by two-character short-name.(ir, N1, W2 etc.) After doing above settings, close SATAID once.

Reference: Abbreviations on Short name SATAID( for Himawari-8) Long name Band number Wave length Band01 V1 VIS1 B01 0.46 μm First visible Band02 V2 VIS2 B02 0.51 μm Second visible Band03 VS VIS3 B03 0.64 μm Third and traditional visible Band04 N1 NIR1 B04 0.86 μm First near infrared Band05 N2 NIR2 B05 1.6 μm Second near infrared Band06 N3 NIR3 B06 2.3 μm Third near infrared Band07 I4 SWIR B07 3.9 μm Short wave IR Band08 WV WV1 B08 6.2 μm First and traditional water vapor Band09 W2 WV2 B09 6.9 μm Second water vapor Band10 W3 WV3 B10 7.3 μm Third water vapor Band11 MI MWIR B11 8.6 μm Medium wave IR Band12 O3 O3 B12 9.6 μm Ozone Band13 IR LWIR1 B13 10.4 μm First long wave IR or traditional IR Band14 L2 LWIR2 B14 11.2 μm Second long wave IR Band15 I2 LWIR3 B15 12.4 μm Third long wave IR or traditional second IR Band16 CO CO2 B16 13.3 μm CO2

Throw the data into SATAID! Throw all data!

How to display RGB (Airmass) Airmass RGB recipe by EUMETSAT R : WV(6.2) W3(7.3) -25.0 ~ 0.0 [K] Gamma = 1.0 G : O3(9.6) IR(10.8 ) -40.0 ~ 5.0 [K] Gamma= 1.0 B : WV(6.2) 243 ~ 208 [K] Gamma = 1.0 Let s try to make Airmass RGB on SATAID!

How to display RGB (Airmass) Set up the difference images by Register setup. (In this example, S4 and S6 are assigned to WV-W3 and O3-IR respectively.) S4 : WV-W3 (B08 B10) Upper : 0.0 Lower : -25.0 S6 : O3-IR (B12 B13) Upper : 5.0 Lower : -40.0

How to display RGB (Airmass) 1 Select WV(Band08) 4 Set up as below then press OK. Low: 208.00K (-65.15 ) High: 243.00K (-30.15 ) 2 Select Gray 3 Hold down Ctrl key and press Initial.

How to display RGB (Airmass) 1 Select S4 4 Set up as below then press OK. Low: -25.00K High: 0.00K 2 Select Gray and check Revs 3 Hold down Ctrl key and press Initial.

How to display RGB (Airmass) 1 Select S6 4 Set up as below then press OK. Low: -40.00K High: 5.00K 2 Select Gray and check Revs 3 Hold down Ctrl key and press Initial.

How to display RGBs 4 Set image names for compositing and gamma values, then press OK. 1 Select Gray. 2 Press Color. 3 Hold down Ctrl key and select Mix.

How to display RGB (Airmass) Overlap images S4 as red, S6 as green and WV as blue All gamma values: 1.0

How to display RGB (Airmass) Airmass image by SATAID! Are you OK?

Reference: Interpretation of Colors for Airmass Thick, high-level clouds Thick, mid-level clouds Thick, low-level clouds (low latitude) Thick, low-level clouds (high latitude) JET Cold Airmass Warm Airmass (High humidity at upper tropopause) Warm Airmass (low humidity at upper tropopause) Note: Based on SEVIRI/EUMETSAT interpretation

Example of interpretation For details, MSC/JMA VLab support site: Himawari RGB Training Library http://www.data.jma.go.jp/mscweb/en/vrl/vlab_rgb/rgbimage.html Cold Airmass Jet Thick, low-level clouds Thick, high-level clouds Warm Airmass Thick, high-level clouds JET Thick, mid-level clouds Cold Airmass Thick, low-level clouds (low latitude) Warm Airmass (High humidity at upper tropopause) Thick, low-level clouds (high latitude) Warm Airmass (low humidity at upper tropopause)

How to display RGB (Dust) Dust RGB recipe by EUMETSAT R : I2(12.0) IR(10.8) -4.0 ~ 2.0 [K] Gamma = 1.0 G : IR(10.8) MI(8.6) 0.0 ~ 15.0 [K] Gamma= 2.5 B : IR(10.8) 261 ~ 289 [K] Gamma = 1.0 Let s try to make Dust RGB on SATAID!

How to display RGB (Dust) Set up the difference images by Register setup. (In this example, S1 and S5 are assigned to IR-I2 and IR-MI respectively.) S1 : IR-I2(B15 B13) Upper : 2.0 Lower : -4.0 S5 : IR-MI (B13 B11) Upper : 15.0 Lower : 0.0

How to display RGB (Dust) 1 Select IR (Band13) L2 (Band14) is also OK 2 Select Gray and check Revs 4Set up as below then press OK. Low: 261.00K (-12.15 ) High: 289.00K (15.85 ) 3 Hold down Ctrl key and press Initial.

How to display RGB (Dust) 1 Select S1 2 Select Gray 4Set up as below then press OK. Low: -2.00K High: 4.00K 3 Hold down Ctrl key and press Initial.

How to display RGB (Dust) 1 Select S5 2 Select Gray and check Revs 4Set up as below then press OK. Low: 0.00K High: 15.00K 3 Hold down Ctrl key and select Initial.

How to display RGB (Dust) Overlap images S1 as red, S5 as green and IR as blue Gamma values for red and blue: 1.0, green:2.5

Display example : Airmass + NWP

Display example : Natural colors + SYNOP

Display example : Day convective storms + drawing

Reference: How to create animated GIF by SATAID Sample gif anime >> Select Option Bitmap Output animated GIF, then save the gif format file. Note that the video quality is not high.

Thank you!

RGB color interpretations Night Microphysics Natural Colors Cold, thick, high-level cloud Very cold (< -50 C), thick, high-level cloud Thin Cirrus cloud High-level ice clouds Thick, mid-level cloud Thin, mid-level cloud Low-level cloud (high latitudes) Low-level cloud (low latitudes) Low-level water clouds Ocean Land Ocean Vegetation Desert Snow Day Microphysics #1 Day Microphysics #2 Deep precipitating cloud (precip. not necessarily reaching the ground) - Bright, thick - Large ice particles - Cold cloud Deep precipitating cloud (Cb cloud with strong updrafts and severe weather)* - Bright, thick - Small ice particles - Cold cloud Thin Cirrus cloud (Large ice particles) Thin Cirrus cloud (Small ice particles) Supercooled, thick water cloud - Bright, thick - Large droplets Supercooled, thick water cloud - Bright, thick - Small droplets Supercooled thin water cloud - Large droplets Supercooled, thin water cloud - Small droplets *or thick, high-level lee cloudiness with small ice particles Thick water cloud (warm rain cloud) - Bright, thick - Large droplets Thick water cloud (no precipitation) - Bright, thick - Small droplets Thin water cloud - Large droplets Thin water cloud - Small droplets Ocean Vegetation Fires(Hot Spot)/Desert Snow Ocean Vegetation Fires(Hot Spot)/Desert Snow Day Snow-Fog Day Convective Storms (Day Convection) Deep precipitating cloud (precip. not necessarily reaching the ground) - Bright, thick - Large ice particles Deep precipitating cloud* - Bright, thick - Small ice particles *or thick, high-level lee cloudiness with small ice particles Deep precipitating cloud (precip. not necessarily reaching the ground) - High level Cloud - Large ice particles Deep precipitating cloud (Cb cloud with strong updrafts and severe weather)* - High level Cloud - Small ice particles Thin Cirrus cloud - Large ice particles Thin Cirrus cloud - Small ice particles *or thick, high-level lee cloudiness with small ice particles Thick water cloud - Large droplets Thick water cloud - Small droplets Ocean Vegetation Desert Snow Ocean Land Dust Airmass Cold, thick, high-level clouds Thin Cirrus clouds Contrails Thick, high-level clouds Thick, mid-level clouds Thick, mid-level cloud Thin, mid-level cloud Low-level cloud (cold atmosphere, High latitude) Low-level cloud (warm atmosphere, Low latitude) Dust/Yellow sand Thick, low-level clouds (low latitude) Thick, low-level clouds (high latitude) Ocean Warm Desert Cold Desert Warm Land Cold Land JET Cold Airmass Warm Airmass (High humidity at upper tropopause) Warm Airmass (low humidity at upper tropopause)

RGB recipes (EUMETSAT recipes) Night Microphysics Natural Colors R : IR12.0 IR10.8 (default S1 on SATAID) Range : -4~2 [K] Gamma : 1.0 G : IR10.8 IR3.9 (default S2 on SATAID) Range : 0~10[K] Gamma : 1.0 B : IR10.8 (reverse on SATAID) Range : 243~293[K] Gamma : 1.0 R : NIR1.6 Range : 0~100 [%] Gamma : 1.0 G : VIS0.8 Range : 0~100 [%] Gamma : 1.0 B : VIS0.6 Range : 0~100 [%] Gamma : 1.0 Day Microphysics R : VIS0.8 Range : 0~100 [%] Gamma : 1.0 G : IR3.9 Solar reflectance component (reverse on SATAID) Range : 0~60[%] Gamma : 2.5 (summer) Range : 0~25[%] Gamma : 1.5 (winter) B : IR10.8 (reverse on SATAID) Range : 203~323[K] Gamma : 1.0 Day Snow-Fog Day Convective Storms (Day Convection) R : VIS0.8 Range : 0~100 [%] Gamma : 1.7 G : NIR1.6 Range : 0~70 [%] Gamma : 1.7 B : IR3.9 Solar reflectance component (reverse on SATAID) Range : 0~30 [%] Gamma : 1.7 R : WV6.2-WV7.3 Range : -35~5 [K] Gamma : 1.0 G : IR3.9-IR10.8 (reverse on SATAID) Range : -5~60 [K] Gamma : 0.5 B : NIR1.6-VIS0.6 (reverse on SATAID) Range : -75~25 [%] Gamma : 1.0 Dust Airmass R : IR12.0-IR10.8 (default S1 on SATAID) Range : -4~2 [K] Gamma : 1.0 G : IR10.8-IR8.7 (reverse on SATAID) Range : 0~15 [K] Gamma : 2.5 B : IR10.8 (reverse on SATAID) Range : 261~289 [K] Gamma : 1.0 R : WV6.2-WV7.3 (reverse on SATAID) Range : -25~0 [K] Gamma : 1.0 G : IR9.7-IR10.8 (reverse on SATAID) Range : -40~5 [K] Gamma : 1.0 B : WV6.2 Range : 243~208 [K] Gamma : 1.0

List of multi-spectral bands Channel Himawari-8/ -9 MTSAT-1R/-2 MSG Physical Properties 1 0.46 μm/b01/v1 2 0.51 μm/b02/v2 3 0.64 μm/b03/vs 0.68 μm 0.635 µm vegetation, aerosol B vegetation, aerosol G low cloud, fog R 4 0.86 μm/b04/n1 0.81 µm vegetation, aerosol 5 1.6 μm/b05/n2 1.64 µm cloud phase 6 2.3 μm/b06/n3 particle size 7 3.9 μm/b07/i4 3.7 μm 3.92 µm low cloud, fog, forest fire 8 6.2 μm/b08/wv 6.8 μm 6.25 µm mid- and upper level moisture 9 6.9 μm/b09/w1 mid- level moisture 10 7.3 μm/b10/w3 7.35 µm mid- and upper level moisture 11 8.6 μm/b11/mi 8.70 µm cloud phase, SO2 12 9.6 μm/b12/o3 9.66 µm ozone content 13 10.4 μm/b13/ir 10.8 μm 10.8 µm 14 11.2 μm/b14/l2 15 12.4 μm/b15/i2 12.0 μm 12.0 µm cloud imagery, information of cloud top cloud imagery, sea surface temperature cloud imagery, sea surface temperature 16 13.3 μm/b16/co 13.4 µm cloud top height Visible Near Infrared Infrared Note: List of Himawari-8/ -9 indicates central wavelengths/ band number/ short name on SATAID

Guidance for trainee regarding RGB practical training Meteorological Satellite Center (MSC) Japan Meteorological Agency Author: Akihiro SHIMIZU Analysis Division, Data Processing Department Meteorological Satellite Center (MSC)/JMA Ver.1.00

Procedure of booting up of automatic SATAID loop Double click *.vbs or *.bat!

SATAID loop of case study will be started!

Case Study #1 Convective cloud around Southeast of Japan Meteorological Satellite Center (MSC) Japan Meteorological Agency Author: Akihiro SHIMIZU Analysis Division, Data Processing Department Meteorological Satellite Center (MSC)/JMA Ver.1.01

Case Study #1 Convective cloud around Southeast of Japan

Day Convective Storm RGB" around Southeast of Japan, 27th November2015

Day Convective Storms (Day Convection) R : WV6.2-WV7.3 Range : -35~5 [K] Gamma : 1.0 G : IR3.9-IR10.8 Range : -5~60 [K] Gamma : 0.5 B : NIR1.6-VIS0.6 Range : -75~25 [%] Gamma : 1.0 Applications distinction of convective clouds with severe phenomenon such as gust and tornado etc.

Fig1. Weather Chart #1 5

Fig2. Weather Chart #2 6

#1 Please point at the Cbs by drawing "Cb" mark on SATAID.

Fig1. Hint Interpretation of Colors for Day Convective Storms Deep precipitating cloud (precip. not necessarily reaching the ground) - High level Cloud - Large ice particles Deep precipitating cloud (Cb cloud with strong updrafts and severe weather)* - High level Cloud - Small ice particles Thin Cirrus cloud - Large ice particles Thin Cirrus cloud - Small ice particles *or thick, high-level lee cloudiness with small ice particles Ocean Land 8

#1 Answer

#2 Please compare with the result and other black and white "traditional" images such as IR and VS.

#3 Please overlap radar data on the images.

#4 Please check "NWP" button and select "GSM", press " black inverted triangle", and check "850" and "wind".

#5 Please select "IR" image and select "Measur" of "Function", and select "Brit" of "Measure". And please click any point on the image.

#6 Please indicate them by drawing on SATAID.

#6 Answer

Case Study #2 Fog around Borneo Island Meteorological Satellite Center (MSC) Japan Meteorological Agency Author: Akihiro SHIMIZU Analysis Division, Data Processing Department Meteorological Satellite Center (MSC)/JMA Ver.1.01

Case Study #2 Fog around Borneo Island

Night Microphysics RGB" around Borneo Island, 11th September2015

Fig1. Night Microphysics (for night-time cloud analysis) R : IR12.0 IR10.8 Range : -4~2 [K] Gamma : 1.0 G : IR10.8 IR3.9 Range : 0~10[K] Gamma : 1.0 B : IR10.8 Range : 243~293[K] Gamma : 1.0 Applications night-time cloud analysis Fog/low cloud distinction for night-time

Night Microphysics RGB with Synop

#1 Please specify WBGS/Sibu Airport and answer its visibility. #2 What color area does correspond to fog or low cloud area?

Answers #1 and #2

Fig1. Interpretation of Colors for Night Microphysics Cold, thick, high-level cloud Very cold (< -50 C), thick, high-level cloud Thin Cirrus cloud Thick, mid-level cloud Thin, mid-level cloud Low-level cloud (high latitudes) Low-level cloud (low latitudes) Ocean Land

#3 Please check "NWP", select "GSM" and press "setup".

Case Study #3 Volcanic ash of Mt. Raung Meteorological Satellite Center (MSC) Japan Meteorological Agency Author: Akihiro SHIMIZU Analysis Division, Data Processing Department Meteorological Satellite Center (MSC)/JMA Ver.1.01

Case Study #3 Volcanic ash of Mt. Raung

Volcanic ash of Mt. Raung by Dust RGB", 13th July 2015

Fig. Dust R : IR12.0-IR10.8 Range : -4~2 [K] Gamma : 1.0 G : IR10.8-IR8.7 Range : 0~15 [K] Gamma : 2.5 B : IR10.8 Range : 261~289 [K] Gamma : 1.0 Applications Dust/ Yellow sand Volcanic ash Cloud analysis

Fig. Interpretation of Colors for Dust Cold, thick, high-level clouds Thin Cirrus clouds Contrails Thick, mid-level cloud Thin, mid-level cloud Low-level cloud (cold atmosphere, High latitude) Low-level cloud (warm atmosphere, Low latitude) Dust/Yellow sand Ocean Warm Desert Cold Desert Warm Land Cold Land

Answers: #1 Please indicate volcanic ash by using Dust RGB image. #3 Please select "S2" Image (B07 - B13), and find hot spot corresponded to a crater of the volcano.

#2 Please compare with the result and other black and white "traditional" images such as IR and VS.

#4 Please uncheck "Mark", check "NWP" button and select "GSM". Then RGB image overlapping arrow feathers of NWP(GPV) data can be displayed. Blue arrows correspond to wind of upper layer (500 hpa), and red arrows correspond to wind of lower layer (850 hpa).

#5 Please compare with Ash RGB and True color RGB images. Ash RGB True Color RGB

Ash R : IR12.3-IR10.4 Range : -4~2 [K] Gamma : 1.0 G : IR10.8-IR8.7 Range : -4~5 [K] Gamma : 1.0 B : IR10.8 Range : 243~208 [K] Gamma : 1.0 Applications Dust/ Yellow sand Volcanic ash Cloud analysis

True Color RGB R : VIS0.64 (B03) Range : 0~100 [%] Gamma : 1.0 G : VIS0.51 (B02) Range : 0~100 [%] Gamma : 1.0 B : VIS0.46 (B01) Range : 0~100 [%] Gamma : 1.0 Applications Nephanalysis Dust Smoke(forest fire)