4. A hoop of mass M and radius R lies motionless on a frictionless surface. Aimed towards it, but off center by a distance d < R, is a smaller object of mass m<< M and radius r« R moving at speed v. The two objects undergo a totally inelastic collision. Note: For m <« M , it can be assumed that the center of mass motion of the composite object is appropriately approximated by being located at the center of mass of the hoop and that V would be parallel to v. a. Find an expression in terms of M , R , m, v and d for i. the final translational speed V , and ii. the final rotational speed, w, of the composite object. b. What are the possible range of values for both @ and V , and what values ofd correspond to each? c. Find an expression for how much energy was lost in the collision, in terms of m, M, d, R, and K,(=}mv² ). d. What is the maximum and minimum energy loss possible by varying the value of d, and e. What are the values of w and V for M = 2.0 kg, m= 25 g, R=15 cm, d = 10 cm, and v=1.0 m/s . %3D

4. A hoop of mass M and radius R lies motionless on a frictionless surface. Aimed towards it, but off center by a distance d < R, is a smaller object of mass m<< M and radius r« R moving at speed v. The two objects undergo a totally inelastic collision. Note: For m <« M , it can be assumed that the center of mass motion of the composite object is appropriately approximated by being located at the center of mass of the hoop and that V would be parallel to v. a. Find an expression in terms of M , R , m, v and d for i. the final translational speed V , and ii. the final rotational speed, w, of the composite object. b. What are the possible range of values for both @ and V , and what values ofd correspond to each? c. Find an expression for how much energy was lost in the collision, in terms of m, M, d, R, and K,(=}mv² ). d. What is the maximum and minimum energy loss possible by varying the value of d, and e. What are the values of w and V for M = 2.0 kg, m= 25 g, R=15 cm, d = 10 cm, and v=1.0 m/s . %3D

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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Question

4. A hoop of mass M and radius R lies motionless on a frictionless surface. Aimed towards
it, but off center by a distance d < R, is a smaller object of mass m<< M and radius
r« R moving at speed v. The two objects undergo a totally inelastic collision.
Note: For m <« M , it can be assumed that the center of mass motion of the composite
object is appropriately approximated by being located at the center of mass of the hoop
and that V would be parallel to v.
a. Find an expression in terms of M , R , m, v and d for
i. the final translational speed V , and
ii. the final rotational speed, w, of the composite object.
b. What are the possible range of values for both @ and V , and what values ofd
correspond to each?
c. Find an expression for how much energy was lost in the collision, in terms of m,
M, d, R, and K,(=}mv² ).
d. What is the maximum and minimum energy loss possible by varying the value of
d, and
e. What are the values of w and V for M = 2.0 kg, m= 25 g, R=15 cm,
d = 10 cm, and v=1.0 m/s .
%3D

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