In an amusement park ride called The Roundup, passengers stand inside a 18.0 m -diameter rotating ring. After the ring has acquired sufficient speed, it tilts into a vertical plane, as shown: Suppose the ring rotates once every 4.50 s . If a rider's mass is 56.0 kg , with how much force does the ring push on her at the top of the ride? Suppose the ring rotates once every 4.50 s . If a rider's mass is 56.0 kg , with how much force does the ring push on her at the bottom of the ride? What is the longest rotation period of the wheel that will prevent the riders from falling off at the top?
In an amusement park ride called The Roundup, passengers stand inside a 18.0 m -diameter rotating ring. After the ring has acquired sufficient speed, it tilts into a vertical plane, as shown: Suppose the ring rotates once every 4.50 s . If a rider's mass is 56.0 kg , with how much force does the ring push on her at the top of the ride? Suppose the ring rotates once every 4.50 s . If a rider's mass is 56.0 kg , with how much force does the ring push on her at the bottom of the ride? What is the longest rotation period of the wheel that will prevent the riders from falling off at the top?
University Physics Volume 1
18th Edition
ISBN:9781938168277
Author:William Moebs, Samuel J. Ling, Jeff Sanny
Publisher:William Moebs, Samuel J. Ling, Jeff Sanny
Chapter10: Fixed-axis Rotation
Section: Chapter Questions
Problem 108AP: Calculate the angular velocity of the orbital motion of Earth around the Sun.
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In an amusement park ride called The Roundup, passengers stand inside a 18.0 m -diameter rotating ring. After the ring has acquired sufficient speed, it tilts into a vertical plane, as shown:
- Suppose the ring rotates once every 4.50 s . If a rider's mass is 56.0 kg , with how much force does the ring push on her at the top of the ride?
- Suppose the ring rotates once every 4.50 s . If a rider's mass is 56.0 kg , with how much force does the ring push on her at the bottom of the ride?
-
What is the longest rotation period of the wheel that will prevent the riders from falling off at the top?
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