Its mass M1 slides on a 45degree oblique surface and its height is H, as shown. The mass is connected by a flexible rope, the mass of which is neglected over a small ball (neglect its mass) and connected to another mass M2 , its mass is equal to the mass of the mass hanging over the head, as shown in the figure below. The rope is long enough to be Height H / 2 The dimensions of the blocks and the reel are neglected compared to the height H The two masses were left free at time t = 0 a- At t> 0, find the vertical acceleration of the M2 block? b-Which of the two blocks will move down? Calculate the time t1 that will hit the Earth? c- If the block in the previous paragraph stopped when it hit the ground, but the other block continued to move, explain whether it will hit the pulley or not and why?

Its mass M1 slides on a 45degree oblique surface and its height is H, as shown. The mass is connected by a flexible rope, the mass of which is neglected over a small ball (neglect its mass) and connected to another mass M2 , its mass is equal to the mass of the mass hanging over the head, as shown in the figure below. The rope is long enough to be Height H / 2 The dimensions of the blocks and the reel are neglected compared to the height H The two masses were left free at time t = 0 a- At t> 0, find the vertical acceleration of the M2 block? b-Which of the two blocks will move down? Calculate the time t1 that will hit the Earth? c- If the block in the previous paragraph stopped when it hit the ground, but the other block continued to move, explain whether it will hit the pulley or not and why?

Name: Its mass M1 slides on a 45degree oblique surface and its height is H,
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Description: Its mass M1 slides on a 45degree oblique surface and its height is H, as shown. The mass is connected by a flexible rope, the mass of which is neglected over a small ball (neglect its mass) and connected to another mass M2 , its mass is equal to the

Principles of Physics: A Calculus-Based Text

5th Edition

ISBN:9781133104261

Author:Raymond A. Serway, John W. Jewett

Publisher:Raymond A. Serway, John W. Jewett

Chapter10: Rotational Motion

Section: Chapter Questions

Problem 11OQ

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