Drag causes the satellites to drop further into the earth's atmosphere. The further the s/c (spacecraft, in the case of your question, a satellite) dips into the earth's atmosphere the greater the effects of atmospheric drag. Eventually, it can cause the s/c to burn up in the earth's atmosphere.
- Senior majoring in Aerospace Engineering
Satellites orbit in the thermosphere or exosphere where there is no wind and drag is negligible.
There are no known satellites of Mercury.
Triangulation of satellites requires three satellites that bank of one another simultaneously.
Yes but they are called natural satellites
Satellites need to be out of the earth's atmosphere or the gravity would make them fall to the ground. In space, the satellites are also able to orbit the earth effortlessly because they have less weight.
Artificial satellites orbit primarily in the Earth's atmosphere's upper layers, including the thermosphere and exosphere, where air density is extremely low. While they are above the majority of the atmosphere, some satellites can experience drag from residual atmospheric particles, particularly at lower altitudes. Most satellites operate in orbits ranging from a few hundred kilometers to several thousand kilometers above the Earth's surface, well above the significant atmospheric effects.
That will happen if they lose movement energy - usually due to atmospheric drag, if they are not high enough above Earth.
Satellites are located in the exosphere because it is the outermost layer of Earth's atmosphere and provides an ideal environment for satellites to orbit without encountering significant atmospheric drag. This allows satellites to continuously orbit the Earth and perform their intended functions, such as communication, Earth observation, and navigation.
In the exosphere, two things that can be found are very low-density gases like hydrogen and helium, as well as some satellites and space debris due to the lack of atmospheric drag.
Orbiting satellites are typically found in the thermosphere layer of the atmosphere, which extends from about 80 to 600 kilometers above the Earth's surface. This layer is where the density of gas molecules is low enough for satellites to orbit without experiencing significant atmospheric drag.
Satellites are primarily found in the thermosphere, which is the layer of the Earth's atmosphere located approximately 80 to 600 kilometers (50 to 370 miles) above the surface. Some satellites, especially those in low Earth orbit (LEO), operate within the lower part of the thermosphere, while others, like geostationary satellites, are positioned in the exosphere, which extends above the thermosphere. These layers provide the necessary altitude for satellites to maintain their orbits and avoid significant atmospheric drag.
Satellites orbit in the thermosphere or exosphere where there is no wind and drag is negligible.
David Lukens Reasoner has written: 'The Combined Release and Radiation Effects Satellite Program, CRRES' -- subject(s): Extraterrestrial radiation, Remote sensing, Earth sciences, Radiation effects, Atmospheric chemistry, Earth magnetosphere, Earth resources technology satellites, Chemical effects, Artificial satellites, Earth ionosphere
Yes, they are two atmospheric effects. No, they are not related.
Don't drag my book bag on the floor. Slight atmospheric drag can cause a satellite to slow down and eventually fall back to Earth. Wild horses could not drag me from a good chariot race.
Satellites may fall out of the sky because they get too close to Earth. In that case, Earth overwhelmed the power of the satellite's propelling system and slowly but surely dragged the satellite into the Earth's atmosphere.
Anything up to 2000 km (1240 miles) above sea level. Low earth orbiting satellites can suffer from atmospheric drag at very low altitudes, although there is little gas around at their orbit, there may still be enough to slow the satellite and cause it's orbit to decay. The lowest satellites would be around 300km in altitude, but would not be able to sustain orbit without an occasional boost.