OTB1 NTIA Space Record form with updated Hawaii station coordinates in DDDHHMMSS

0050-EX-CM-2019 Text Documents

General Atomics

2019-05-10ELS_229686

NTIA Space record data form NTIA requires the following data for space related experiments using government shared spectrum. For each transmit frequency, please provide the data for both ends of the transmit‐receive link. Use Part A to describe the satellite to ground information. Part B is for all ground to space transmit links. Part A: Space to Earth Downlink Data Satellite Transmitter Data Transmit Frequency: 2272.5 MHz Satellite Name: Orbital Test Bed (OTB) Data Field Data Answer Description/Comments Polarization (XAP) XAP = J and R POLARIZATIONS INCLUDE : H = HORIZONTAL, V = VERTICAL, S = HORIZONTAL AND VERTICAL, L = LEFT HAND CIRCULAR, R = RIGHT HAND CIRCULAR, T = RIGHT AND LEFT HAND CIRCULAR, J = LINEAR POLARIZATION Orientation (XAZ) XAZ = EC NB= NARROWBEAM EC = EARTH COVERAGE Antenna Antenna 1 (NTIA format (XAD), EXAMPLE, XAD01 16G030B) Dimension (XAD) 0dB ANTENNA GAIN__________ Omni Directional BEAMWIDTH ____________ Antenna 2 3 dB ANTENNA GAIN__________ +-60 Deg BEAMWIDTH ____________ XAD = XAD01 00G360B/03G120B Type of satellite Type = Nongeostationary Choose either: Geostationary or (State = SP) Nongeostationary (City = geo or non) For Geostationary Longitude = IF ANY SATELLITES ARE GEOSTATIONARY, REPORT ITS LATITUDE AS 000000N (XLA AND/OR RLA) AND REPORT ITS LONGITUDE (XLG AND/OR RLG). For 24deg INCLINATION ANGLE________________, IF ANY SATELLITES ARE NONGEOSTATIONARY, REPORT ITS INCLINATION ANGLE, APOGEE Nongeostationary APOGEE IN 720 KILOMETERS_____________, IN KILOMETERS, PERIGEE IN KILOMETERS, (Orbital Data) 720 PERIGEE IN KILOMETERS_____________, ORBITAL PERIOD IN HOURS AND FRACTIONS OF 1 ORBITAL PERIOD IN HOURS _______AND HOURS IN DECIMAL, THE NUMBER OF SATELLITES IN THE SYSTEM, THEN T01, EXAMPLE, FRACTIONS OF HOURS IN REM04 653 DECIMAL______, *ORB,98.0IN00510AP00510PE001.58H01NRT01, AND FOR SPACE‐TO‐SPACE THE NUMBER OF SATELLITES IN THE COMMUNICATIONS WITH ANOTHER 1 SYSTEM___________, NONGEOSTATIONARY SATELLITE ADD AN *ORB,0024IN00720AP00720PE1.653H01NR ADDITIONAL ORB = *ORB FOR IT ENDING IN R01, EXAMPLE, REM05 *ORB,72.9IN03209AP00655PE013.46H01NRR01

Earth Station Data (Primary Receiver) State (RSC) RSC = GA City Name (RAL) RAL = Pendergrass Latitude Lat = 341747N (DDMMSS) Longitude Lon = 0836719W (DDDMMSS) Antenna RAP = T POLARIZATIONS INCLUDE : H = HORIZONTAL, Polarization (RAP) V = VERTICAL, S = HORIZONTAL AND VERTICAL, L = LEFT HAND CIRCULAR, R = RIGHT HAND CIRCULAR, T = RIGHT AND LEFT HAND CIRCULAR, J = LINEAR POLARIZATION Antenna Azimuth RAZ = V05 THE EARTH STATION RECEIVER ANTENNA AZIMUTH (RAZ), THE MINIMUM ANGLE OF (RAZ) ELEVATION, V00 TO V90, EXAMPLE, RAZ01 V00 Antenna 38.1dBi ANTENNA GAIN______________, EXAMPLE ASSUMING NONGEOSTATIONARY, Dimensions (RAD) 1.9 degrees BEAMWIDTH_____________, RAD01 16G030B000‐360A00357H006 000-360 AZIMUTHAL RANGE____________, THE SITE ELEVATION ABOVE MEAN SEA 283m LEVEL IN METERS ___________ THE ANTENNA HEIGHT ABOVE TERRAIN IN METERS 6.4m ______________ RAD =38G1.9B000-360A00283H6.4 Earth Station Data (Secondary Receiver) State (RSC) RSC = HI City Name (RAL) RAL = Haleiwa Latitude Lat = 214012N (DDMMSS) Longitude Lon =1580206W (DDDMMSS) Antenna RAP = T POLARIZATIONS INCLUDE : H = HORIZONTAL, Polarization (RAP) V = VERTICAL, S = HORIZONTAL AND VERTICAL, L = LEFT HAND CIRCULAR, R = RIGHT HAND CIRCULAR, T = RIGHT AND LEFT HAND CIRCULAR, J = LINEAR POLARIZATION Antenna Azimuth RAZ = V05 THE EARTH STATION RECEIVER ANTENNA AZIMUTH (RAZ), THE MINIMUM ANGLE OF (RAZ) ELEVATION, V00 TO V90, EXAMPLE, RAZ01 V00 Antenna 40.0dBi ANTENNA GAIN______________, EXAMPLE ASSUMING NONGEOSTATIONARY, RAD01 16G030B000‐360A00357H006 Dimensions (RAD) 1.4 degrees BEAMWIDTH___________, AZIMUTHAL RANGE____ 000-360 ________, THE SITE ELEVATION ABOVE MEAN SEA 132m LEVEL IN METERS ________ THE ANTENNA HEIGHT ABOVE TERRAIN 7.1m IN METERS _________ RAD =40G1.4B000-360A00132H7.1 FCC notes: 1. Use S‐Note S945. 2. REM AGN, Cubesat, (insert name)

Earth Station Data (Secondary Receiver) State (RSC) RSC = ARG City Name (RAL) RAL = Cordoba Latitude Lat = 315200S (DDMMSS) Longitude Lon = 0644600W (DDDMMSS) Antenna RAP = T POLARIZATIONS INCLUDE : H = HORIZONTAL, Polarization (RAP) V = VERTICAL, S = HORIZONTAL AND VERTICAL, L = LEFT HAND CIRCULAR, R = RIGHT HAND CIRCULAR, T = RIGHT AND LEFT HAND CIRCULAR, J = LINEAR POLARIZATION Antenna Azimuth RAZ = V05 THE EARTH STATION RECEIVER ANTENNA AZIMUTH (RAZ), THE MINIMUM ANGLE OF (RAZ) ELEVATION, V00 TO V90, EXAMPLE, RAZ01 V00 Antenna 38.1dBi ANTENNA GAIN______________, EXAMPLE ASSUMING NONGEOSTATIONARY, Dimensions (RAD) 1.9 degrees BEAMWIDTH_____________, RAD01 16G030B000‐360A00357H006 000-360 AZIMUTHAL RANGE____________, THE SITE ELEVATION ABOVE MEAN SEA 691m LEVEL IN METERS ___________ THE ANTENNA HEIGHT ABOVE TERRAIN IN METERS 6.4m ______________ RAD =38G1.9B000-360A00691H6.4 Earth Station Data (Secondary Receiver) State (RSC) RSC = AFS City Name (RAL) RAL = Hartebeesthoek Latitude Lat = 258865S (DDMMSS) Longitude Lon = 277056E (DDDMMSS) Antenna RAP = T POLARIZATIONS INCLUDE : H = HORIZONTAL, Polarization (RAP) V = VERTICAL, S = HORIZONTAL AND VERTICAL, L = LEFT HAND CIRCULAR, R = RIGHT HAND CIRCULAR, T = RIGHT AND LEFT HAND CIRCULAR, J = LINEAR POLARIZATION Antenna Azimuth RAZ = V03 THE EARTH STATION RECEIVER ANTENNA AZIMUTH (RAZ), THE MINIMUM ANGLE OF (RAZ) ELEVATION, V00 TO V90, EXAMPLE, RAZ01 V00 Antenna 27dBi ANTENNA GAIN______________, EXAMPLE ASSUMING NONGEOSTATIONARY, Dimensions (RAD) 2.8 degrees BEAMWIDTH_____________, RAD01 16G030B000‐360A00357H006 000-360 AZIMUTHAL RANGE____________, THE SITE ELEVATION ABOVE MEAN SEA 1563.5m LEVEL IN METERS ___________ THE ANTENNA HEIGHT ABOVE TERRAIN IN METERS 5m ______________ RAD = 27G2.8B000-360A01563H005 FCC notes: 1. Use S‐Note S945. 2. REM AGN, Cubesat, (insert name)

Part B: Ground Stations, Earth to Space link data: Earth Station Transmitter Data Transmit Frequency: 2061MHz State (XSC) XSC = GA City Name (XAL) XAL = Pendergrass Latitude Lat = 341747N (DDMMSS) Longitude Lon = 0836719W (DDDMMSS) Antenna XAP = T POLARIZATIONS INCLUDE : H = HORIZONTAL, Polarization (XAP) V = VERTICAL, S = HORIZONTAL AND VERTICAL, L = LEFT HAND CIRCULAR, R = RIGHT HAND CIRCULAR, T = RIGHT AND LEFT HAND CIRCULAR, J = LINEAR POLARIZATION Antenna Azimuth XAZ =V10 THE EARTH STATION Transmitter ANTENNA AZIMUTH (XAZ), THE MINIMUM ANGLE OF (XAZ) ELEVATION, V00 TO V90, EXAMPLE, XAZ01 V00 Antenna EXAMPLE ASSUMING NONGEOSTATIONARY, 38.1dBi ANTENNA GAIN______ ________, XAD01 16G030B000‐360A00357H006 Dimensions (XAD) BEAMWIDTH_1.9 ___degrees _________, AZIMUTHAL RANGE000-360 ____________, THE SITE ELEVATION ABOVE MEAN SEA 283m LEVEL IN METERS __ _________ THE ANTENNA HEIGHT ABOVE TERRAIN IN METERS 6_.4m _____________ RAD =38G1.9B000-360A00283H6.4 State (XSC) RSC = HI City Name (XAL) RAL = Haleiwa Latitude Lat = 214012N (DDMMSS) Longitude Lon =1580206W (DDDMMSS) Antenna RAP = T POLARIZATIONS INCLUDE : H = HORIZONTAL, Polarization (XAP) V = VERTICAL, S = HORIZONTAL AND VERTICAL, L = LEFT HAND CIRCULAR, R = RIGHT HAND CIRCULAR, T = RIGHT AND LEFT HAND CIRCULAR, J = LINEAR POLARIZATION Antenna Azimuth RAZ = V05 THE EARTH STATION Transmitter ANTENNA AZIMUTH (XAZ), THE MINIMUM ANGLE OF (XAZ) ELEVATION, V00 TO V90, EXAMPLE, XAZ01 V00 Antenna 40.0dBi ANTENNA GAIN______________, EXAMPLE ASSUMING NONGEOSTATIONARY, XAD01 16G030B000‐360A00357H006 Dimensions (XAD) 1.4 degrees BEAMWIDTH___________, AZIMUTHAL RANGE____ 000-360 ________, THE SITE ELEVATION ABOVE MEAN SEA LEVEL IN METERS ___132m _____ THE ANTENNA HEIGHT ABOVE TERRAIN 7.1m IN METERS _________ RAD =40G1.4B000-360A00132H7.1

State (XSC) RSC = ARG City Name (XAL) RAL = Cordoba Latitude Lat = 315200S (DDMMSS) Longitude Lon = 0644600W (DDDMMSS) Antenna POLARIZATIONS INCLUDE : RAP = T H = HORIZONTAL, Polarization (XAP) V = VERTICAL, S = HORIZONTAL AND VERTICAL, L = LEFT HAND CIRCULAR, R = RIGHT HAND CIRCULAR, T = RIGHT AND LEFT HAND CIRCULAR, J = LINEAR POLARIZATION Antenna Azimuth THE EARTH STATION Transmitter ANTENNA RAZ = V05 AZIMUTH (XAZ), THE MINIMUM ANGLE OF (XAZ) ELEVATION, V00 TO V90, EXAMPLE, XAZ01 V00 EXAMPLE ASSUMING NONGEOSTATIONARY, Antenna 38.1dBi ANTENNA GAIN______ ________, XAD01 16G030B000‐360A00357H006 Dimensions (XAD) BEAMWIDTH_1.9 ___degrees _________, 000-360 AZIMUTHAL RANGE____ ________, THE SITE ELEVATION ABOVE MEAN SEA 691 LEVEL IN METERS __ m______ ___ THE ANTENNA HEIGHT ABOVE TERRAIN IN METERS 6_.4m _____________ RAD =38G1.9B000-360A00691H6.4 State (XSC) RSC = AFS City Name (XAL) RAL = Hartebeesthoek Latitude Lat = 258865S (DDMMSS) Longitude Lon =0277056E (DDDMMSS) Antenna RAP = T POLARIZATIONS INCLUDE : H = HORIZONTAL, Polarization (XAP) V = VERTICAL, S = HORIZONTAL AND VERTICAL, L = LEFT HAND CIRCULAR, R = RIGHT HAND CIRCULAR, T = RIGHT AND LEFT HAND CIRCULAR, J = LINEAR POLARIZATION Antenna Azimuth RAZ =V05 THE EARTH STATION Transmitter ANTENNA AZIMUTH (XAZ), THE MINIMUM ANGLE OF (XAZ) ELEVATION, V00 TO V90, EXAMPLE, XAZ01 V00 Antenna ANTENNA GAIN___ 27d Bi________, ___ EXAMPLE ASSUMING NONGEOSTATIONARY, Dimensions (XAD) 2.8 degrees BEAMWIDTH_____________, XAD01 16G030B000‐360A00357H006 AZIMUTHAL RANGE____000-360 ________, THE SITE ELEVATION ABOVE MEAN SEA LEVEL IN METERS __1563.5 _____m____ THE ANTENNA HEIGHT ABOVE TERRAIN IN METERS 5_m _____________ RAD = 27G2.8B000-360A01563H005

Satellite Receive Specifications Polarization (RAP) RAP = R POLARIZATIONS INCLUDE : H = HORIZONTAL, V = VERTICAL, S = HORIZONTAL AND VERTICAL, L = LEFT HAND CIRCULAR, R = RIGHT HAND CIRCULAR, T = RIGHT AND LEFT HAND CIRCULAR, J = LINEAR POLARIZATION Azimuth (RAZ) RAZ = EC STATION RECEIVER ANTENNA AZIMUTH (XAZ), THE MINIMUM ANGLE OF ELEVATION, V00 TO V90, EXAMPLE, RAZ01 V00 Dimension (RAD) ANTENNA GAIN_3dB _________ (NTIA format (RAD), EXAMPLE, RAD01 16G030B) +-60________ BEAMWIDTH ____ RAD = 03G120B Type of satellite Type = Nongeostationary Choose either: Geostationary or (State = SP) Nongeostationary City = G/No For Geostationary Longitude = IF ANY SATELLITES ARE GEOSTATIONARY, REPORT ITS LATITUDE AS 000000N (XLA AND/OR RLA) AND REPORT ITS LONGITUDE (XLG AND/OR RLG). For 24deg INCLINATION ANGLE____ ____________, IF ANY SATELLITES ARE NONGEOSTATIONARY, REPORT ITS INCLINATION ANGLE, APOGEE Nongeostationary APOGEE IN KILOMETERS__720 ___________, IN KILOMETERS, PERIGEE IN KILOMETERS, (Orbital Data) 720 PERIGEE IN KILOMETERS__ ___________, ORBITAL PERIOD IN HOURS AND FRACTIONS OF ORBITAL PERIOD IN HOURS __1_____AND HOURS IN DECIMAL, THE NUMBER OF SATELLITES IN THE SYSTEM, THEN T01, EXAMPLE, FRACTIONS OF HOURS IN REM04 DECIMAL_653 _____, *ORB,98.0IN00510AP00510PE001.58H01NRT01, AND FOR SPACE‐TO‐SPACE THE NUMBER OF SATELLITES IN THE COMMUNICATIONS WITH ANOTHER SYSTEM__1_________, NONGEOSTATIONARY SATELLITE ADD AN ADDITIONAL *ORB FOR IT ENDING IN R01, EXAMPLE, REM05 *ORB,72.9IN03209AP00655PE013.46H01NRR01

Transmit Frequency: 2062MHz State (XSC) XSC = GA City Name (XAL) XAL = Pendergrass Latitude Lat = 341747N (DDMMSS) Longitude Lon = 0836719W (DDDMMSS) Antenna XAP = T POLARIZATIONS INCLUDE : H = HORIZONTAL, Polarization (XAP) V = VERTICAL, S = HORIZONTAL AND VERTICAL, L = LEFT HAND CIRCULAR, R = RIGHT HAND CIRCULAR, T = RIGHT AND LEFT HAND CIRCULAR, J = LINEAR POLARIZATION Antenna Azimuth XAZ =V10 THE EARTH STATION Transmitter ANTENNA AZIMUTH (XAZ), THE MINIMUM ANGLE OF (XAZ) ELEVATION, V00 TO V90, EXAMPLE, XAZ01 V00 Antenna EXAMPLE ASSUMING NONGEOSTATIONARY, 38.1dBi ANTENNA GAIN______ ________, XAD01 16G030B000‐360A00357H006 Dimensions (XAD) BEAMWIDTH_1.9 ___degrees _________, AZIMUTHAL RANGE000-360 ____________, THE SITE ELEVATION ABOVE MEAN SEA 283m LEVEL IN METERS __ _________ THE ANTENNA HEIGHT ABOVE TERRAIN IN METERS 6_.4m _____________ RAD =38G1.9B000-360A00283H6.4 State (XSC) RSC = HI City Name (XAL) RAL = Haleiwa Latitude Lat = 214012N (DDMMSS) Longitude Lon =1580206W (DDDMMSS) Antenna RAP = T POLARIZATIONS INCLUDE : H = HORIZONTAL, Polarization (XAP) V = VERTICAL, S = HORIZONTAL AND VERTICAL, L = LEFT HAND CIRCULAR, R = RIGHT HAND CIRCULAR, T = RIGHT AND LEFT HAND CIRCULAR, J = LINEAR POLARIZATION Antenna Azimuth RAZ = V05 THE EARTH STATION Transmitter ANTENNA AZIMUTH (XAZ), THE MINIMUM ANGLE OF (XAZ) ELEVATION, V00 TO V90, EXAMPLE, XAZ01 V00 Antenna 40.0dBi ANTENNA GAIN______________, EXAMPLE ASSUMING NONGEOSTATIONARY, XAD01 16G030B000‐360A00357H006 Dimensions (XAD) 1.4 degrees BEAMWIDTH___________, AZIMUTHAL RANGE____ 000-360 ________, THE SITE ELEVATION ABOVE MEAN SEA LEVEL IN METERS ___132m _____ THE ANTENNA HEIGHT ABOVE TERRAIN 7.1m IN METERS _________ RAD =40G1.4B000-360A00132H7.1

State (XSC) RSC = ARG City Name (XAL) RAL = Cordoba Latitude Lat = 315200S (DDMMSS) Longitude Lon = 0644600W (DDDMMSS) Antenna POLARIZATIONS INCLUDE : RAP = T H = HORIZONTAL, Polarization (XAP) V = VERTICAL, S = HORIZONTAL AND VERTICAL, L = LEFT HAND CIRCULAR, R = RIGHT HAND CIRCULAR, T = RIGHT AND LEFT HAND CIRCULAR, J = LINEAR POLARIZATION Antenna Azimuth THE EARTH STATION Transmitter ANTENNA RAZ = V05 AZIMUTH (XAZ), THE MINIMUM ANGLE OF (XAZ) ELEVATION, V00 TO V90, EXAMPLE, XAZ01 V00 EXAMPLE ASSUMING NONGEOSTATIONARY, Antenna 38.1dBi ANTENNA GAIN______ ________, XAD01 16G030B000‐360A00357H006 Dimensions (XAD) BEAMWIDTH_1.9 ___degrees _________, 000-360 AZIMUTHAL RANGE____ ________, THE SITE ELEVATION ABOVE MEAN SEA 691 LEVEL IN METERS __ m______ ___ THE ANTENNA HEIGHT ABOVE TERRAIN IN METERS 6_.4m _____________ RAD =38G1.9B000-360A00691H6.4 State (XSC) RSC = AFS City Name (XAL) RAL = Hartebeesthoek Latitude Lat = 258865S (DDMMSS) Longitude Lon =0277056E (DDDMMSS) Antenna RAP = T POLARIZATIONS INCLUDE : H = HORIZONTAL, Polarization (XAP) V = VERTICAL, S = HORIZONTAL AND VERTICAL, L = LEFT HAND CIRCULAR, R = RIGHT HAND CIRCULAR, T = RIGHT AND LEFT HAND CIRCULAR, J = LINEAR POLARIZATION Antenna Azimuth RAZ =V05 THE EARTH STATION Transmitter ANTENNA AZIMUTH (XAZ), THE MINIMUM ANGLE OF (XAZ) ELEVATION, V00 TO V90, EXAMPLE, XAZ01 V00 Antenna ANTENNA GAIN___ 27d Bi________, ___ EXAMPLE ASSUMING NONGEOSTATIONARY, Dimensions (XAD) 2.8 degrees BEAMWIDTH_____________, XAD01 16G030B000‐360A00357H006 AZIMUTHAL RANGE____000-360 ________, THE SITE ELEVATION ABOVE MEAN SEA LEVEL IN METERS __1563.5 _____m____ THE ANTENNA HEIGHT ABOVE TERRAIN IN METERS 5_m _____________ RAD = 27G2.8B000-360A01563H005

Satellite Receive Specifications Polarization (RAP) RAP = R POLARIZATIONS INCLUDE : H = HORIZONTAL, V = VERTICAL, S = HORIZONTAL AND VERTICAL, L = LEFT HAND CIRCULAR, R = RIGHT HAND CIRCULAR, T = RIGHT AND LEFT HAND CIRCULAR, J = LINEAR POLARIZATION Azimuth (RAZ) RAZ = EC STATION RECEIVER ANTENNA AZIMUTH (XAZ), THE MINIMUM ANGLE OF ELEVATION, V00 TO V90, EXAMPLE, RAZ01 V00 Dimension (RAD) ANTENNA GAIN_3dB _________ (NTIA format (RAD), EXAMPLE, RAD01 16G030B) +-60________ BEAMWIDTH ____ RAD = 03G120B Type of satellite Type = Nongeostationary Choose either: Geostationary or (State = SP) Nongeostationary City = G/No For Geostationary Longitude = IF ANY SATELLITES ARE GEOSTATIONARY, REPORT ITS LATITUDE AS 000000N (XLA AND/OR RLA) AND REPORT ITS LONGITUDE (XLG AND/OR RLG). For 24deg INCLINATION ANGLE____ ____________, IF ANY SATELLITES ARE NONGEOSTATIONARY, REPORT ITS INCLINATION ANGLE, APOGEE Nongeostationary APOGEE IN KILOMETERS__720 ___________, IN KILOMETERS, PERIGEE IN KILOMETERS, (Orbital Data) 720 PERIGEE IN KILOMETERS__ ___________, ORBITAL PERIOD IN HOURS AND FRACTIONS OF ORBITAL PERIOD IN HOURS __1_____AND HOURS IN DECIMAL, THE NUMBER OF SATELLITES IN THE SYSTEM, THEN T01, EXAMPLE, FRACTIONS OF HOURS IN REM04 DECIMAL_653 _____, *ORB,98.0IN00510AP00510PE001.58H01NRT01, AND FOR SPACE‐TO‐SPACE THE NUMBER OF SATELLITES IN THE COMMUNICATIONS WITH ANOTHER SYSTEM__1_________, NONGEOSTATIONARY SATELLITE ADD AN ADDITIONAL *ORB FOR IT ENDING IN R01, EXAMPLE, REM05 *ORB,72.9IN03209AP00655PE013.46H01NRR01

Transmit Frequency: 2063MHz State (XSC) XSC = GA City Name (XAL) XAL = Pendergrass Latitude Lat = 341747N (DDMMSS) Longitude Lon = 0836719W (DDDMMSS) Antenna XAP = T POLARIZATIONS INCLUDE : H = HORIZONTAL, Polarization (XAP) V = VERTICAL, S = HORIZONTAL AND VERTICAL, L = LEFT HAND CIRCULAR, R = RIGHT HAND CIRCULAR, T = RIGHT AND LEFT HAND CIRCULAR, J = LINEAR POLARIZATION Antenna Azimuth XAZ =V10 THE EARTH STATION Transmitter ANTENNA AZIMUTH (XAZ), THE MINIMUM ANGLE OF (XAZ) ELEVATION, V00 TO V90, EXAMPLE, XAZ01 V00 Antenna EXAMPLE ASSUMING NONGEOSTATIONARY, 38.1dBi ANTENNA GAIN______ ________, XAD01 16G030B000‐360A00357H006 Dimensions (XAD) BEAMWIDTH_1.9 ___degrees _________, AZIMUTHAL RANGE000-360 ____________, THE SITE ELEVATION ABOVE MEAN SEA 283m LEVEL IN METERS __ _________ THE ANTENNA HEIGHT ABOVE TERRAIN IN METERS 6_.4m _____________ RAD =38G1.9B000-360A00283H6.4 State (XSC) RSC = HI City Name (XAL) RAL = Haleiwa Latitude Lat = 214012N (DDMMSS) Longitude Lon =1580206W (DDDMMSS) Antenna RAP = T POLARIZATIONS INCLUDE : H = HORIZONTAL, Polarization (XAP) V = VERTICAL, S = HORIZONTAL AND VERTICAL, L = LEFT HAND CIRCULAR, R = RIGHT HAND CIRCULAR, T = RIGHT AND LEFT HAND CIRCULAR, J = LINEAR POLARIZATION Antenna Azimuth RAZ = V05 THE EARTH STATION Transmitter ANTENNA AZIMUTH (XAZ), THE MINIMUM ANGLE OF (XAZ) ELEVATION, V00 TO V90, EXAMPLE, XAZ01 V00 Antenna 40.0dBi ANTENNA GAIN______________, EXAMPLE ASSUMING NONGEOSTATIONARY, XAD01 16G030B000‐360A00357H006 Dimensions (XAD) 1.4 degrees BEAMWIDTH___________, AZIMUTHAL RANGE____ 000-360 ________, THE SITE ELEVATION ABOVE MEAN SEA LEVEL IN METERS ___132m _____ THE ANTENNA HEIGHT ABOVE TERRAIN 7.1m IN METERS _________ RAD =40G1.4B000-360A00132H7.1

State (XSC) RSC = ARG City Name (XAL) RAL = Cordoba Latitude Lat = 315200S (DDMMSS) Longitude Lon = 0644600W (DDDMMSS) Antenna POLARIZATIONS INCLUDE : RAP = T H = HORIZONTAL, Polarization (XAP) V = VERTICAL, S = HORIZONTAL AND VERTICAL, L = LEFT HAND CIRCULAR, R = RIGHT HAND CIRCULAR, T = RIGHT AND LEFT HAND CIRCULAR, J = LINEAR POLARIZATION Antenna Azimuth THE EARTH STATION Transmitter ANTENNA RAZ = V05 AZIMUTH (XAZ), THE MINIMUM ANGLE OF (XAZ) ELEVATION, V00 TO V90, EXAMPLE, XAZ01 V00 EXAMPLE ASSUMING NONGEOSTATIONARY, Antenna 38.1dBi ANTENNA GAIN______ ________, XAD01 16G030B000‐360A00357H006 Dimensions (XAD) BEAMWIDTH_1.9 ___degrees _________, 000-360 AZIMUTHAL RANGE____ ________, THE SITE ELEVATION ABOVE MEAN SEA 691 LEVEL IN METERS __ m______ ___ THE ANTENNA HEIGHT ABOVE TERRAIN IN METERS 6_.4m _____________ RAD =38G1.9B000-360A00691H6.4 State (XSC) RSC = AFS City Name (XAL) RAL = Hartebeesthoek Latitude Lat = 258865S (DDMMSS) Longitude Lon =0277056E (DDDMMSS) Antenna RAP = T POLARIZATIONS INCLUDE : H = HORIZONTAL, Polarization (XAP) V = VERTICAL, S = HORIZONTAL AND VERTICAL, L = LEFT HAND CIRCULAR, R = RIGHT HAND CIRCULAR, T = RIGHT AND LEFT HAND CIRCULAR, J = LINEAR POLARIZATION Antenna Azimuth RAZ =V05 THE EARTH STATION Transmitter ANTENNA AZIMUTH (XAZ), THE MINIMUM ANGLE OF (XAZ) ELEVATION, V00 TO V90, EXAMPLE, XAZ01 V00 Antenna ANTENNA GAIN___ 27d Bi________, ___ EXAMPLE ASSUMING NONGEOSTATIONARY, Dimensions (XAD) 2.8 degrees BEAMWIDTH_____________, XAD01 16G030B000‐360A00357H006 AZIMUTHAL RANGE____000-360 ________, THE SITE ELEVATION ABOVE MEAN SEA LEVEL IN METERS __1563.5 _____m____ THE ANTENNA HEIGHT ABOVE TERRAIN IN METERS 5_m _____________ RAD = 27G2.8B000-360A01563H005

Satellite Receive Specifications Polarization (RAP) RAP = R POLARIZATIONS INCLUDE : H = HORIZONTAL, V = VERTICAL, S = HORIZONTAL AND VERTICAL, L = LEFT HAND CIRCULAR, R = RIGHT HAND CIRCULAR, T = RIGHT AND LEFT HAND CIRCULAR, J = LINEAR POLARIZATION Azimuth (RAZ) RAZ = EC STATION RECEIVER ANTENNA AZIMUTH (XAZ), THE MINIMUM ANGLE OF ELEVATION, V00 TO V90, EXAMPLE, RAZ01 V00 Dimension (RAD) ANTENNA GAIN_3dB _________ (NTIA format (RAD), EXAMPLE, RAD01 16G030B) +-60________ BEAMWIDTH ____ RAD = 03G120B Type of satellite Type = Nongeostationary Choose either: Geostationary or (State = SP) Nongeostationary City = G/No For Geostationary Longitude = IF ANY SATELLITES ARE GEOSTATIONARY, REPORT ITS LATITUDE AS 000000N (XLA AND/OR RLA) AND REPORT ITS LONGITUDE (XLG AND/OR RLG). For 24deg INCLINATION ANGLE____ ____________, IF ANY SATELLITES ARE NONGEOSTATIONARY, REPORT ITS INCLINATION ANGLE, APOGEE Nongeostationary APOGEE IN KILOMETERS__720 ___________, IN KILOMETERS, PERIGEE IN KILOMETERS, (Orbital Data) 720 PERIGEE IN KILOMETERS__ ___________, ORBITAL PERIOD IN HOURS AND FRACTIONS OF ORBITAL PERIOD IN HOURS __1_____AND HOURS IN DECIMAL, THE NUMBER OF SATELLITES IN THE SYSTEM, THEN T01, EXAMPLE, FRACTIONS OF HOURS IN REM04 DECIMAL_653 _____, *ORB,98.0IN00510AP00510PE001.58H01NRT01, AND FOR SPACE‐TO‐SPACE THE NUMBER OF SATELLITES IN THE COMMUNICATIONS WITH ANOTHER SYSTEM__1_________, NONGEOSTATIONARY SATELLITE ADD AN ADDITIONAL *ORB FOR IT ENDING IN R01, EXAMPLE, REM05 *ORB,72.9IN03209AP00655PE013.46H01NRR01


Document Created: 2019-05-10 09:50:34
Document Modified: 2019-05-10 09:50:34
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