Geosynchronous

C. D. Brown (1998), Spacecraft Mission Design, 2nd Edition, AIAA Education Series, p. 81 Specifically, geosynchronous Earth orbit (GEO) may be a synonym for geosynchronous equatorial orbit, citation or geostationary Earth orbit.

Other geosynchronous orbits Elliptical geosynchronous orbits can be and are designed for communications satellites in order to keep the satellite within view of its assigned ground stations or receivers.

Through this market research, the Space Force wants to assess the advantages and of using smaller geosynchronous platforms.

About 19 minutes into the flight, the GSLV rocket will deliver the satellite into a Geosynchronous Transfer Orbit (GTO) from where it will be further taken up by firing the onboard motors.

The GSLV on Saturday placed the INSAT-3DS satellite in the Geosynchronous Transfer Orbit (GTO), the second successful mission after it placed the NVS-01 satellite for India's own satellite-based navigation system NavIC.

The PTS payloads will be deployed on satellites in geosynchronous Earth orbit so they are compatible with military satcom terminals with stationary antennas that point only to GEO satellites.

Compared to larger traditional geosynchronous satellites that most people are familiar with, these smaller LEO and MEO satellites travel closer to Earth and are launched in greater numbers.

According to the space agency, the satellite with a life span of around 10 years will be put into orbit by the Indian rocket, Geosynchronous Satellite Launch Vehicle (GSLV-F08).

It is in a geosynchronous orbit as the Earth rotates, so it stays in the same place relative to the surface, capturing the same geographic region 24 hours a day.

The satellite will be initially placed in the Geosynchronous Transfer Orbit and will subsequently be raised to geostationary orbit.

A geostationary equatorial orbit (GEO) is a circular geosynchronous orbit in the plane of the Earth's equator with a radius of approximately convert (measured from the center of the Earth).

A geostationary orbit stays exactly above the equator, whereas a geosynchronous orbit may swing north and south to cover more of the Earth's surface.

All geosynchronous and geostationary orbits have a semi-major axis of convert.

A long cable would be dropped "downward" (toward Earth) and would be balanced by a mass being dropped "upward" (away from Earth) for the whole system to remain on the geosynchronous orbit.

Animation showing geosynchronous satellite orbiting the Earth.

Any object released from the cable above the geosynchronous level would initially accelerate upward along the cable.

But science fiction writers have a fairly good track record in predicting future technologies — for example geosynchronous communications satellites ( Arthur C. Clarke ) and many aspects of computer technology ( Mack Reynolds ).

Earlier designs imagined the balancing mass to be another cable (with counterweight) extending upward, with the main spool remaining at the original geosynchronous orbit level.

It has been operating since February 2010 in a geosynchronous earth orbit.

Maximum tension on a space elevator cable would be at geosynchronous altitude so the cable would have to be thickest there and taper carefully as it approaches Earth.