A solid disk of moment of inertia 0.563 kg m2 is spinning about its center of mass at a rate of 10.5 rad/s on top of a frictionless table surface. An identical disk that is not rotating is carefully placed on top of the rotating one, such that their centers coincide. If there is no external force and no loss of mechanical energy, how fast will the two-disk system rotate? a. 5.91 rad/s b. 21.0 rad/s c. 5.25 rad/s d. 10.5 rad/s
A solid disk of moment of inertia 0.563 kg m2 is spinning about its center of mass at a rate of 10.5 rad/s on top of a frictionless table surface. An identical disk that is not rotating is carefully placed on top of the rotating one, such that their centers coincide. If there is no external force and no loss of mechanical energy, how fast will the two-disk system rotate? a. 5.91 rad/s b. 21.0 rad/s c. 5.25 rad/s d. 10.5 rad/s
College Physics
11th Edition
ISBN:9781305952300
Author:Raymond A. Serway, Chris Vuille
Publisher:Raymond A. Serway, Chris Vuille
Chapter1: Units, Trigonometry. And Vectors
Section: Chapter Questions
Problem 1CQ: Estimate the order of magnitude of the length, in meters, of each of the following; (a) a mouse, (b)...
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A solid disk of moment of inertia 0.563 kg m2 is spinning about its center of mass at a rate of 10.5 rad/s on top of a frictionless table surface. An identical disk that is not rotating is carefully placed on top of the rotating one, such that their centers coincide. If there is no external force and no loss of mechanical energy, how fast will the two-disk system rotate?
a. 5.91 rad/s
b. 21.0 rad/s
c. 5.25 rad/s
d. 10.5 rad/s

Transcribed Image Text:A solid disk of moment of inertia 0.563 kg m2 is spinning
about its center of mass at a rate of 10.5 rad/s on top of a
frictionless table surface. An identical disk that is not
rotating is carefully placed on top of the rotating one, such
that their centers coincide. If there is no external force and
no loss of mechanical energy, how fast will the two-disk
system rotate?
O 5.91 rad/s
O 21.0 rad/s
O 5.25 rad/s
O 10.5 rad/s
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