It has to get up to 7km a second to get out of earth's orbit, then it orbits around earth.
A propagation delay is the amount of time it takes radio waves to travel from the surface of the Earth to the satellite and then back down to the Earth. The calculation of the delay is based upon the altitude and position of the satellite systems.
Once a satellite is launched into orbit, the force of gravity tends to pull it toward the Earth. But by moving fast enough, it falls in a curved path and circles the Earth. So orbit is something like a controlled fall. If a satellite does not move fast enough, it will eventually spiral closer to the Earth and burn up in the Earth's atmosphere. The same balance of gravity and speed keeps the moon and the International Space Station in orbit. This answer was found at the site of: http://www.boeing.com/companyoffices/aboutus/wonder_of_flight/iss.html
an ellipse. the sinewave path on flat maps is because most satellite orbits are inclined/tilted with respect to the earth's axis. so the satellite moves north/south as well as around the earth.
* Artificial Earth satellite Sputnik 1The first successful satellite launched by the Russians (The Soviet Union at the time) was Sputnik 1 on October 4, 1957. It was released during the Cold War and it caused a space race between the Americans and the Soviet Union. Apart from being the first satellite to be launched into space, it also helped us to better understand the upper atmosphere, including the radiation belts and the ionosphere. It traveled 18000 miles per hour so it only took about 92 minutes to travel around the Earth.* Russian satellite countriesCountries of Eastern Europe adopted Communist governments following World War II and were called "satellite" countries of the USSR, which was dominated by Russia. They were collectively known as the Warsaw Pact countries for the military treaty to which they were signatories. The first country was Poland, partly occupied by the USSR in a 1939 arrangement with Nazi Germany.
It would depend on the objects location, time, and the gravitational pull on the object.
No, they travel with gravity after their travel up a lift hill or after a launch.
Space shuttles must travel at 11km/s so that they can escape the force of gravity. the force of gravity is approximately 9.81. If you don't travel at a greater speed than the force of gravity, the rocket will not launch.
it is the gravity affects the weight
The gravity is greater the nearer to Earth you go. The same is true for all planets.
travel horizontally
Repelling Force of Gravity
Without gravity, the satellite will travel in the same direction it was going when gravity went to nil. This is due to the object's momentum, and the satellite will go off into space. And if the gravitation were nil to begin with, there would have been no orbit in the first place. The question is problematic, since planets will always have gravity. Picture a ball on a string that is being whirled around by someone. If the string snaps, the ball continues to move in the direction it was going at the moment the string snapped. It flies off in a tangent, and the satellite will do the same thing if gravity is suddenly reduced to zero.
Satellite internet can be reliable for travel in remote locations, as it does not rely on traditional infrastructure like cables or cell towers. However, factors such as weather conditions and line of sight obstructions can affect its performance. It is important to research and choose a reputable satellite internet provider for the best experience.
Rockets such as the Saturn V, Falcon 9, and Space Launch System (SLS) have been used to successfully launch spacecraft and travel into space. These rockets generate enough thrust to overcome Earth's gravity and propel spacecraft beyond our planet's atmosphere into space.
Gravity affects space exploration in several ways. It influences the trajectory of spacecraft, the orbits of planets and other celestial bodies, and the energy needed to launch and navigate spacecraft. Understanding and accounting for gravity is essential for planning missions, calculating fuel requirements, and ensuring successful exploration of outer space.
The rocket launching the satellite from the equator would need to travel at the speed of approximately 1670 km/h due to the Earth's rotational velocity. This speed is necessary to counteract the rotation of the Earth and achieve orbit around the planet.
Satellites in Low Earth Orbit (LEO) must travel fast to continue orbiting the Earth without falling back down due to gravity. The high speed helps to balance the force of gravity to keep the satellite in orbit. Additionally, the fast speed allows the satellite to complete its orbit around the Earth in a relatively short amount of time.