subject (dymanics)pls show me full steps with clear handwritingpls send me in 30 mins sirpls use this matrix num AD200153 A1 m0.1 mB0.2 mC0.4 mFigure Q2 A small marble at point A of mass 0.5 kg as shown in Figure Q2 is release downward withan initial speed of VẠ m/s and strikes a smooth inclined plane given tan 0 = at point B.(a)If point A is located 1 m above the impact area, calculate the speed of the marbleimmediately before the impact.(b)Assuming the coefficient of restitution between marble and plane is e = 0.5,determine the speed and direction of the marble immediately after the impact.(c)Using the speed obtained in Q2 (b) and assuming a free flight motion of the marbleafter the impact. Predict the horizontal travel distance measuring from point B.Use your last digit of matrix number to get the value of V, for marble initial speed.Example; If your matrix number is AD192005.A D 1 9 20 0 5VA = 5 + 2Then, VA = 7 ms-1%3D

Answered: Image /qna-images/answer/847c796f-0418-427a-a310-16a26d0bdecb.jpg

Answered: A small marble at point A of mass 0.5…

A small marble at point A of mass 0.5 kg as shown in Figure Q2 is release downward with an initial speed of V¼ m/s and strikes a smooth inclined plane given tan 0 = ² at point B.

Elements Of Electromagnetics

7th Edition

ISBN:9780190698614

Author:Sadiku, Matthew N. O.

Publisher:Sadiku, Matthew N. O.

ChapterMA: Math Assessment

Section: Chapter Questions

Problem 1.1MA

See similar textbooks

Similar questions

(a). A body of weight 700 N body is at rest. Another body of weight 300 N moving to the left with a velocity of 11 m/s collides with body which is at rest. After impact the body which is moving before impact comes to rest. Find the final velocity of body after impact and the coefficient of restitution.
Q2) The 2 kg collar is released from rest at A and slides down the inclined fixed rod in the vertical plane. The coefficient of kinetic friction is 0.4. Calculate (a) the velocity of the collar as it strikes the spring and (b) the maximum deflection of the spring 2 kg 0.5 m %3! H = 0.4 60° k = 1.6 kN/m
A 35 g steel ball is held by a ceiling-mounted electromagnet 3.4 m above the floor. A compressed-air cannon sits on the floor, 5.0 m to one side of the point directly under the ball. When a button is pressed, the ball drops and, simultaneously, the cannon fires a 25 g plastic ball. The two balls collide 1.2 m above the floor. What was the launch speed of the plastic ball?
Q2: Disk A has a mass of 2 kg and is sliding forward on the smooth surface with a velocity when it strikes the 4kg disk B, which is sliding towards A at with direct central impact. If the coefficient of restitution between the disks is 0.4. Compute the velocities of A and B just after collision. Ans.: v = 1.53 m/s , v3 = 1.27 m/s → (V,)ı = 5 m/s (Vg) = 2 m/s A B
(a) A car of weight 600 N is at rest. Another car of weight 420 N body moving to the left with a velocity of 12 m/s collides with the car which is at rest . After impact the car which is moving before impact comes to rest. Find the final velocity of body after impact and the coefficient of restitution. (b)A vehicle of mass 13 tonnes runs into a buffer stop having three buffer springs connected in parallel each of 1150 kN/cm, 2850 kN/cm and 1350 kN/cm stiffness respectively. Find the maximum compression of the springs, if the truck is travelling at 65 km/hr. Also calculate the load acting on the spring.
A 1 kg ball initially travelling at 7 m/s strikes on the lower end of a 5 kg bar AB, as shown in Figure Q2(a). The bar is hinged at A and is initially at rest. The coefficient of restitution between the rod and sphere is 0.7. explain how the ball and rod masses can influence the angular velocity of the bar and the velocity of the ball immediately after impact
The mass of the concrete block shown in the figure is 5 kg and the spring stiffness is 25 kN/m. A bullet weighing 0.15 kg is fired at a speed of 500 m/s into the block when the system is at rest and ricochets back at a speed of 80 m/s (all in a horizontal trajectory). Assuming no shape change of the block and the bullet during collision. (HINT: Initial condition for the velocity must be determined from the conservation of momentum) a) determine the resulting motion u(t) of the block. b) determine the maximum displacement of the block. m mo
As shown in Fig. (a), the ball A of mass m = 0.2 kg is dropped on a rigid sur- face inclined at e = 30° to the horizontal. The coefficient of restitution for the %3D impact is 0.8, and friction between the ball and the surface is negligible. Deter- mine (1) the rebound speed vz and the rebound angle a; and (2) the percentage of kinetic energy lost during the impact. A m V=10 m/s V2 (a)
Q2: Disk A has a mass of 2 kg and is sliding forward on the smooth surface with a velocity when it strikes the 4kg disk B, which is sliding towards A at with direct central impact. If the coefficient of restitution between the disks is 0.4. Compute the velocities of A and B just after collision. Ans.: v = 1.53 m/s, vh = 1.27 m/s- (VA) = 5 m/s (Vp) = 2 m/s A B
A body of weight 370 N body moving to the left with a velocity of 14 m/s collides with another body of weight 690 N body which is at rest. After impact the body which is moving before impact comes to rest. Find the final velocity of body after impact and the coefficient of restitution The final velocity of body after impact in m/s is The coefficient of restitution is
*44. GO A 60.0-kg person, running horizontally with a velocity of +3.80 m/s, jumps onto a 12.0-kg sled that is initially at rest. (a) Ignoring the effects of friction during the collision, find the velocity of the sled and person as they move away. (b) The sled and person coast 30.0 m on level snow before coming to rest. What is the coefficient of kinetic friction between the sled and the snow?
A 1 kg ball initially travelling at 7 m/s strikes on the lower end of a 5 kg bar AB, as shown in Figure Q2(a). The bar is hinged at A and is initially at rest. Thecoefficient of restitution between the rod and sphere is 0.7. Determine the angular velocity of the bar and the velocity of the ballimmediately after impact.