As shown in Fig. 5 above, a boy kicks a 200-g ball at A with a foot velocity of 30 m/s, and the ball leaves the ground at an angle of 60°. The coefficient of restitution between the ball and the foot is 0.6, and between the ball and the wall is 0.8. Neglect the impulse caused by the ball's weight while it's being kicked. The mass of the foot is 2.5kg.

Elements Of Electromagnetics
7th Edition
ISBN:9780190698614
Author:Sadiku, Matthew N. O.
Publisher:Sadiku, Matthew N. O.
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QUESTION 5
60
FIN
60
16 m
Fig 5
As shown in Fig. 5 above, a boy kicks a 200-g ball at A with a foot velocity of 30 m/s, and the
ball leaves the ground at an angle of 60°. The coefficient of restitution between the ball and the
foot is 0.6, and between the ball and the wall is 0.8. Neglect the impulse caused by the ball's
weight while it's being kicked. The mass of the foot is 2.5kg.
a) Determine the distance from the wall where the ball will land after the ball rebounded
from the wall at B.
b) If the ball is changed to a heavier mass, what will happen to the coefficient of restitution
between the ball and the foot, and the position of the ball where it landed. Justify your
answer.
Transcribed Image Text:QUESTION 5 60 FIN 60 16 m Fig 5 As shown in Fig. 5 above, a boy kicks a 200-g ball at A with a foot velocity of 30 m/s, and the ball leaves the ground at an angle of 60°. The coefficient of restitution between the ball and the foot is 0.6, and between the ball and the wall is 0.8. Neglect the impulse caused by the ball's weight while it's being kicked. The mass of the foot is 2.5kg. a) Determine the distance from the wall where the ball will land after the ball rebounded from the wall at B. b) If the ball is changed to a heavier mass, what will happen to the coefficient of restitution between the ball and the foot, and the position of the ball where it landed. Justify your answer.
QUESTION 4
B
2.3 m
4.5 m
0 = 28°
41°
@Bc= 3.6 rad's'
C
Fig. 4
For the rigid body shown in Fig. 4:
a) Identify the type of rigid-body motion for slider A, link AB, and link BC. Define your
positive direction for translation and rotation.
b) By using the vector method, calculate the magnitude of velocity at point B,
magnitude of velocity at point A and angular velocity of the link AB. Show detail
calculation including separate kinematic diagram for each link.
Transcribed Image Text:QUESTION 4 B 2.3 m 4.5 m 0 = 28° 41° @Bc= 3.6 rad's' C Fig. 4 For the rigid body shown in Fig. 4: a) Identify the type of rigid-body motion for slider A, link AB, and link BC. Define your positive direction for translation and rotation. b) By using the vector method, calculate the magnitude of velocity at point B, magnitude of velocity at point A and angular velocity of the link AB. Show detail calculation including separate kinematic diagram for each link.
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