@AL2006 had answered this before: Well, first of all, wherever you got this question from has done a really poor job of question-writing. There are a few assorted blunders in the question, both major and minor ones:
-- 22,500 is the altitude of a geosynchronous orbit in miles, not km.
-- That figure of 22,500 miles is its altitude above the surface, not its radius from the center of the Earth.
-- The orbital period of a synchronous satellite has to match the period of the Earth's rotation, and that's NOT 24 hours. It's about 3 minutes 56 seconds less ... about 86,164 seconds.
Here's my solution to the question, using some of the wreckage as it's given, and correcting some of it. If you turn in these answers as homework, they'll be marked wrong, and you'll need to explain where they came from. If that happens, well, serves ya right for turning in somebody else's answers for homework.
The satellite is traveling a circle. The circle's radius is 26,200 miles (not kilometers) from the center of the Earth, so its circumference is (2 pi) x (26,200 miles) = about 164,619 miles.
Average speed = (distance covered) / (time to cover the distance)
The diagram attached is a sketch of rays when the object is placed between the lens and focal point. As can be seen, the image in such cases is always on the same side of lens as the object. It is formed beyond the focal point from the lens and is magnified
Picture a small child on a spinning playground ride, such as a merry-go-round, and she’s yelling that she wants to get off. You have to stop the spinning ride, but it’s going to take some effort. Why? Because it has <span>angular momentum.</span>
