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Weather and Geoestationary Satellites
As its name says, are satellites whose main objective is to provide data and images of the displacement of masses of air, temperature, wind, etc.. In this category can be found the GOES and Meteosat geostationary satellites in addition to the satellites of NOAA series. The weather satellites are the most important tool to weather forecast.
Satellite Launch Norad Incl.
degrees		 Apogee
Km		 Perigee
Km		 Period
min		 Options
DMSP 5D-2 F14 (USA 131)199724753U99º846833102Tracking
NOAA 15199825338U99º812798101Tracking
DMSP 5D-3 F15 (USA 147)199925991U99º845829102Tracking
METEOSAT-8 (MSG-1)200227509U6º35788357841436Tracking
DMSP 5D-3 F16 (USA 172)200328054U99º852842102Tracking
NOAA 18200528654U99º861841102Tracking
METEOSAT-9 (MSG-2)200528912U4º35791357801436Tracking
HIMAWARI-7 (MTSAT-2)200628937U0º35801357711436Tracking
FORMOSAT-3 FM6200629047U72º831761101Tracking
FORMOSAT-3 FM1200629048U72º826766101Tracking
FORMOSAT-3 FM5200629049U72º819772101Tracking
FORMOSAT-3 FM3200629050U72º73166299Tracking
FORMOSAT-3 FM4200629051U72º845746101Tracking
FORMOSAT-3 FM2200629052U72º823768101Tracking
GOES 13200629155U0º35902358261440Tracking
METOP-A200629499U99º821820101Tracking
DMSP 5D-3 F17 (USA 191)200629522U99º853838102Tracking
FENGYUN 3A200832958U98º836824102Tracking
FENGYUN 2E200833463U4º35801357691436Tracking
NOAA 19200933591U99º862841102Tracking
GOES 14200935491U0º35840357321436Tracking
METEOR-M 1200935865U98º820816101Tracking
DMSP 5D-3 F18 (USA 210)200935951U99º856840102Tracking
GOES 15201036411U0º35799357781436Tracking
COMS 1201036744U0º35790357821436Tracking
FENGYUN 3B201037214U99º851827102Tracking
SUOMI NPP201137849U99º827826101Tracking
FENGYUN 2F201238049U2º35788357781436Tracking
METEOSAT-10 (MSG-3)201238552U1º35795357771436Tracking
METOP-B201238771U99º821819101Tracking
FENGYUN 3C201339260U99º847831102Tracking
METEOR-M 2201440069U99º826820101Tracking
HIMAWARI-8201440267U0º35791357811436Tracking
FENGYUN 2G201440367U2º35794357721436Tracking
METEOSAT-11 (MSG-4)201540732U1º35792357851436Tracking
ELEKTRO-L 2201541105U1º35790357821436Tracking
HIMAWARI-9201641836U0º35789357831436Tracking
GOES 16201641866U0º35789357831436Tracking
FENGYUN 4A201641882U0º35799357771436Tracking
CYGFM05201641884U35º53351295Tracking
CYGFM04201641885U35º53051295Tracking
CYGFM02201641886U35º53151195Tracking
CYGFM01201641887U35º53451295Tracking
CYGFM08201641888U35º53251295Tracking
CYGFM06201641889U35º53051295Tracking
CYGFM07201641890U35º53051295Tracking
CYGFM03201641891U35º53051295Tracking
FENGYUN 3D201743010U99º828824101Tracking
NOAA 20201743013U99º827826101Tracking
GOES 17201843226U0º35788357841436Tracking
FENGYUN 2H201843491U1º35797357731436Tracking
METOP-C201843689U99º822819101Tracking
GEO-KOMPSAT-2A201843823U0º35791357801436Tracking
METEOR-M2 2201944387U99º816812101Tracking
Satellites Orbital Parameters

The table above shows the main parameters and information available for this satellite.

Satellite: This column shows the name of the object in orbit. In some cases the official name ends with the words R/B, meaning that it is a piece or any stage from some rocket booster.

Norad: North American Aerospace Defense Command, the Air Defence Command of the United States, responsible for the catalogue of objects in orbit. The number indicates the record of the satellite in the Norad archives.

Inclination: Angle formed between the orbit of the satellite and terrestrial line of the equator. Satellites with inclination of 0 degrees follow the equator line and are called equatorial orbit satellites. When the inclination is 90 degrees its orbit crosses the terrestrial poles and are called polar orbiting satellites. When the inclination is less or equal latitude of the place of observation, the satellite be seen directly if conditions permit.

Apogee: Maximum distance that the object is far from the center of the Earth.

Perigee: Highest approchement between the object and the center of the Earth. The figures shown already discounting the radius of the Earth, 6378 Km. One Perigee value equal to the value of Apogee indicates a circular orbit satellite.

Period: Value in minutes that a satellite takes to complete one orbit of perigee to perigee. Satellites in polar orbit, positioned at 800 km in altitude will take approximately 102 minutes to complete one revolution. The International Space Station, 350 km above the surface, completes its orbit in 90 minutes.

The lower the altitude of a satellite, more speed he needs to keep in orbit and not re-enters the atmosphere.

Geostationary satellites have a period of approximately 1436 minutes with inclination of 0 degrees (equatorial orbit). Because this is the same time it takes Earth to complete one turn on its axis, geostationary satellites appear static on the same geographic point. To this happens the satellite should be positioned about 36 thousand kilometers in altitude.

Note and Frequency: Filled with additional information where possible. The frequencies shown, when provided, are those captured by enthusiasts or informed by the official organizations of disclosure.

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