(a) What is the final velocity, in m/s, of a hoop that rolls without slipping down a 5.90 m high hill, starting from rest? 10.54 Consider the law of conservation of energy. Note that the hoop has both translational as well as rotational motion. What type(s) of energy does the hoop have at the top of the hill? What type(s) of energy does the hoop have at the bottom of the hil? m/s (b) What would be the final velocity, in m/s, if a disk of the same mass and radius as the hoop rolled down the hill? 10.84 x What is the moment of inertia of a solid disk? m/s
(a) What is the final velocity, in m/s, of a hoop that rolls without slipping down a 5.90 m high hill, starting from rest? 10.54 Consider the law of conservation of energy. Note that the hoop has both translational as well as rotational motion. What type(s) of energy does the hoop have at the top of the hill? What type(s) of energy does the hoop have at the bottom of the hil? m/s (b) What would be the final velocity, in m/s, if a disk of the same mass and radius as the hoop rolled down the hill? 10.84 x What is the moment of inertia of a solid disk? m/s
Related questions
Question
Transcribed Image Text:(a) What is the final velocity, in m/s, of a hoop that rolls without slipping down a 5.90 m high hill, starting from rest?
10.54
Consider the law of conservation of energy. Note that the hoop has both translational as well as rotational motion, What type(s) of energy does the hoop have at the top of the hill? What
type(s) of energy does the hoop have at the bottom of the hil? m/s
(b) What would be the final velocity, in m/s, if a disk of the same mass and radius as the hoop rolled down the hill?
10.84
What is the moment of inertia of a solid disk? m/s.
Expert Solution
This question has been solved!
Explore an expertly crafted, step-by-step solution for a thorough understanding of key concepts.
Step by step
Solved in 3 steps with 3 images
