A spacecraft with mass 1500 kg is in a circular orbit at an altitude 200 km above the surface of Earth.
A) Use the Law of Universal Gravitation and Newton's 2nd law for circular motion to derive and find the speed of the spacecraft in this orbit.
B) How much mechanical energy does the spacecraft have in this orbit?
C) How much work must the spacecraft engines perform to get it into the above circular orbit from the surface of Earth? Ignore the effect of Earth's rotation about its axis.
Thanks you.
A spacecraft with mass 1500 kg is in a circular orbit at an altitude 200 km...
A 3000-kg spacecraft is in a circular orbit 2420 km above the surface of Mars. How much work must the spacecraft engines perform to move the spacecraft to a circular orbit that is 4030 km above the surface?
A 3390-kg spacecraft is in a circular orbit 1990 km above the surface of Mars. How much work must the spacecraft engines perform to move the spacecraft to a circular orbit that is 3990 km above the surface? Express your answer to three significant figures. Please find deltaE The answer is not 6.336*10^9, 0.407 *10^10 , 7.05*10^9 , 1.56*10^10 It is something different, all of the above are wrong.
(13% ) Problem 5: A 4500-kg spaceship is in a circular orbit 170 km above the surface of Earth. It needs to be moved into a higher circular orbit of 390 km to link up with the space station at that altitude a How much work, in joules, do the spaceship's engines have to perform to move to the higher orbit? Ignore any change of mass due to fuel consumption. Grade Summary 0%
Q1: A 1 036-kg satellite orbits the Earth at a constant altitude of 93-km. (a) How much energy must be added to the system to move the satellite into a circular orbit with altitude 203 km? MJ (b) What is the change in the system's kinetic energy? MJ (c) What is the change in the system's potential energy? MJ Q2: A 475 kg satellite is in a circular orbit at an altitude of 575 km above the Earth's surface. Because...
A 450 kg satellite is in a circular orbit at an altitude of 525 km above the Earth's surface. Because of air friction, the satellite eventually falls to the Earth's surface, where it hits the ground with a speed of 2.00 km/s. How much energy was transformed to internal energy by means of friction?
A 500 kg satellite is in a circular orbit at an altitude of 550 km above the Earth's surface. Because of air friction, the satellite eventually falls to the Earth's surface, where it hits the ground with a speed of 1.70 km/s. How much energy was transformed into internal energy by means of air friction?
A 475 kg satellite is in a circular orbit at an altitude of 525 km above the Earth's surface. Because of air friction, the satellite eventually falls to the Earth's surface, where it hits the ground with a speed of 1.50 km/s. How much energy was transformed into internal energy by means of air friction?
A 475 kg satellite is in a circular orbit at an altitude of 575 km above the Earth's surface. Because of air friction, the satellite eventually falls to the Earth's surface, where it hits the ground with a speed of 2.00 km/s. How much energy was transformed into internal energy by means of air friction?
A 450 kg satellite is in a circular orbit at an altitude of 400 km above the Earth's surface. Because of air friction, the satellite eventually falls to the Earth's surface, where it hits the ground with a speed of 2.40 km/s. How much energy was transformed into internal energy by means of air friction?