Solving Orbital Radius Problem: Reduce Radius by 1.09 km

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SUMMARY

The discussion focuses on solving a physics problem involving an astronaut in a space shuttle pursuing a satellite by reducing the orbital radius by 1.09 km. The key to solving the problem lies in equating gravitational force with centripetal force to determine angular velocity. Both the shuttle and satellite share the same angular velocity, and the time to reach the satellite can be calculated using the distance and speed difference. Participants are encouraged to share their numerical results to verify calculations.

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im not getting this problem AT ALL:

You are an astronaut in the space shuttle pursuing a satellite in need of repair. You find yourself in a circular orbit of the same radius as the satellite, but 30.7 km behind it. How long will it take to reach the satellite if you reduce your orbital radius by 1.09 km? You can assume the space shuttle has an orbit of 200 miles above the Earth's surface.
 
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jbot2222 said:
im not getting this problem AT ALL:

You are an astronaut in the space shuttle pursuing a satellite in need of repair. You find yourself in a circular orbit of the same radius as the satellite, but 30.7 km behind it. How long will it take to reach the satellite if you reduce your orbital radius by 1.09 km? You can assume the space shuttle has an orbit of 200 miles above the Earth's surface.

Equate the gravitational force with the centripetal one and from there u should be able to find the angular velocity.
The speed difference between the shuttle and the satellite will result simply from the fact that both the shuttle and the satellite would move with the same angular velocity.
With the distance and the difference in speed,u should be able to find the time.

Daniel.
 
i tried it, but I am getting the wrong answer. wat numerical value did u get when u did it?
 

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