A projectile of mass mp= 29 g and velocity Vp=312 i hits a box of mass mg = 8.5 kg moving with a velocity VB =7iand embeds into it. The box with the projectile continues to slide on a frictionless surface until it reaches a frictionless ramp inclined at an angle e = 12°. 1. Calculate the velocity of the Projectile-Block system after the collision. V pB= %D 2. Calculate the change of the kinetic energy due to the collision. AK = 3. Is the collision elastic inelastic hmax 4. If the incline is frictionless determine the maximum height h, the Projectile-Box can reach. h max таx

A projectile of mass mp= 29 g and velocity Vp=312 i hits a box of mass mg = 8.5 kg moving with a velocity VB =7iand embeds into it. The box with the projectile continues to slide on a frictionless surface until it reaches a frictionless ramp inclined at an angle e = 12°. 1. Calculate the velocity of the Projectile-Block system after the collision. V pB= %D 2. Calculate the change of the kinetic energy due to the collision. AK = 3. Is the collision elastic inelastic hmax 4. If the incline is frictionless determine the maximum height h, the Projectile-Box can reach. h max таx

Name: A projectile of mass mp 29 g and velocity Vp= 312 iPihits a box of ma
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Description: A projectile of mass mp 29 g and velocity Vp= 312 iPihits a box of mass mg= 8.5 kg moving with a velocity=77and embeds into it. The box with the projectile continues to slide on a frictionless surface until it reaches africtionless ramp inclined at

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

Chapter8: Momentum And Collisions

Section: Chapter Questions

Problem 33P

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