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Understanding LEO, MEO, and GEO Orbits: A Deep Dive

Satellites play an integral role in our modern world, supporting a vast range of applications. Depending on their intended function and the type of coverage they need to provide, satellites are positioned in specific orbits. There are three primary orbital regimes that satellites typically inhabit: Low Earth Orbit (LEO), Medium Earth Orbit (MEO), and Geostationary Earth Orbit (GEO). Let’s delve deeper into the characteristics and applications of these orbits.

1. Low Earth Orbit (LEO)

  • Altitude: LEO satellites fly below 2,000 km above mean sea level.
  • Orbital Period: They complete one orbit around Earth in approximately 90 minutes.
  • Coverage Area: The coverage area for LEO satellites is limited, making them ideal for focused or regional applications.
  • Applications: LEO satellites are extensively used for communications, scientific data transmission, and remote sensing.

2. Medium Earth Orbit (MEO)

  • Altitude: Positioned between LEO and GEO, MEO satellites typically orbit around 10,000 to 15,000 km above the Earth’s surface.
  • Orbital Period: These satellites have an orbital period ranging from 2 to 8 hours.
  • Coverage Area: MEO satellites provide a larger coverage area than LEO, bridging the gap between LEO and GEO.
  • Applications: They are primarily employed for communications, navigation, and the exchange of geodetic/space environment data.

3. Geostationary Earth Orbit (GEO)

  • Altitude: Satellites in GEO orbit at approximately 36,000 km above the Earth’s equator.
  • Orbital Period: A GEO satellite takes 24 hours to orbit the Earth, which means it remains stationary relative to a point on the Earth’s surface.
  • Coverage Area: These satellites provide global coverage, making them invaluable for certain applications.
  • Applications: GEO satellites dominate the fields of communications, broadcasting, and weather monitoring.

As we analyze these orbits, it’s evident that each offers unique advantages. LEO is renowned for its low-latency, making it pivotal for applications where real-time communication is essential. Conversely, GEO’s strength lies in its ability to provide global coverage, an asset for broadcasting and weather observation. MEO straddles the two, offering a larger coverage area than LEO and lower latency than GEO.


  1. Why would a company choose a LEO satellite over a GEO satellite?
    • The primary reason would be the need for low-latency, which is vital for applications like real-time communication or remote sensing. Additionally, launching satellites into LEO can be less expensive than GEO.
  2. Do satellites in MEO move relative to the Earth’s surface?
    • Yes, satellites in MEO do move relative to the Earth’s surface but at a slower rate than LEO satellites.
  3. What makes GEO satellites ideal for broadcasting purposes?
    • The fixed position of a GEO satellite relative to the Earth’s surface ensures consistent coverage for broadcasting to a wide area. This consistency is crucial for television and radio broadcasts.


Choosing the right orbit is paramount when deploying a satellite. LEO, MEO, and GEO orbits each come with their distinct advantages tailored to specific applications. Whether it’s the rapid data transmission needs catered to by LEO or the global reach of GEO, understanding these orbits helps satellite operators and users alike harness their potential effectively. As the demand for satellite-based services grows, so does the importance of leveraging the optimal orbital regime.

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