Linked from

The 33 pages that link to Geostationary orbit, each with the reason it gives.

• Orbital periodBroader topic: Matching periods keeps a satellite above nearly the same point on Earth.

• Orbital inclinationBroader topic: Its defining geometry requires near-zero inclination to Earth's equator.

• Orbital elementsBroader topic: Its defining geometry corresponds to particular inclination, eccentricity, and orbital period.

• Low Earth orbitCompared with: Its much greater altitude gives persistent regional coverage, unlike low-orbit satellites.

• Satellite communicationRelated: Its fixed apparent position lets ground antennas maintain a steady connection.

• Satellite televisionRelated: Many television satellites remain in a stable apparent position for fixed dishes.

• Lagrange pointCompared with: Unlike a Lagrange point, it is an orbit around one body rather than a force-balance location.

• Weather satelliteRelated: Satellites in this orbit continuously watch the same broad region.

• Arthur C. ClarkeRelated: Clarke recognized this orbit’s potential for communications satellites.

• Earth observation satelliteCompared with: It offers continuous regional viewing, unlike the global coverage typical of polar-orbiting missions.

• Launch vehicleRelated: Reliable access to this orbit enabled satellites for continuous regional communications and broadcasting.

• International Telecommunication UnionRelated: Satellite filings coordinated through the ITU concern access to this especially valuable orbit.

• OrbitBroader topic: It lets communications and weather satellites continuously cover the same region.

• Sun-synchronous orbitCompared with: It provides continuous regional viewing rather than sun-synchronous passes across changing ground tracks.

• Satellite internetRelated: Satellites in this orbit allow fixed terminals to point steadily, but incur long signal delays.

• Circular orbitBroader topic: It is a specialized circular orbit chosen to match Earth's rotation.

• Kepler's third lawBroader topic: The law sets the orbital radius required for a satellite's period to match Earth's rotation.

• Communications satelliteRelated: This orbit lets one satellite maintain continuous coverage of a broad region.

• Space elevatorRelated: An Earth elevator’s tether must extend beyond this orbit to remain under tension.

• Medium Earth orbitCompared with: MEO sacrifices fixed-point coverage for shorter signal paths and less extreme orbital altitude.

• SatelliteBroader topic: This orbit keeps communications and weather satellites over one region.

• Satellite meteorologyRelated: It provides continuous views of the same region for tracking rapidly changing weather.

• Orbital spaceflightBroader topic: It illustrates how orbital altitude and period determine a spacecraft’s apparent motion.

• Polar orbitCompared with: Its equatorial plane and fixed ground position contrast with polar coverage.

• Molniya orbitCompared with: Its equatorial geometry offers poor viewing angles at high latitudes.

• Orbit of the MoonCompared with: Unlike a geostationary satellite, the Moon follows an inclined, eccentric orbit with a much longer period.

• Outer spaceBroader topic: It contrasts low Earth orbit through its altitude, period, and continuous view of one region.

• Satellite phoneRelated: Satellites in this orbit can provide broad, stable coverage, but require more power and introduce longer signal delays.

• Geosynchronous orbitBroader topic: It is the special geosynchronous orbit that appears stationary to ground observers.

• Orbital station-keepingBroader topic: Satellites in this orbit correct longitude and inclination drift to remain near their assigned positions.

• Frozen orbitCompared with: Its defining stability is a fixed ground position, not frozen eccentricity and orientation.

• Graveyard orbitRelated: The crowded operational region that a graveyard orbit is designed to clear.

• Levitation (physics)Compared with: A satellite remains above one longitude but is in continuous free fall, not levitating.