1. A bullet moving at vo=1500[m/] hits a ballistic pendulum of mass M=2[kg]that hangs on a string of length 0.8[m].The center of mass of the pendulum goes up a distance of 0.4 [m].a. What is the angle 0 at that point?b. What is the mass m of the bullet?c. How much, in Joule, of the initial kinetic energy went into "Waste" (heat,sound, deformation).

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Description: 1. A bullet moving at vo=1500[m/] hits a ballistic pendulum of mass M=2[kg]that hangs on a string of length 0.8[m].The center of mass of the pendulum goes up a distance of 0.4 [m].a. What is the angle 0 at that point?b. What is the mass m of the bul

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1. A bullet moving at v0=1500[m/] hits a ballistic pendulum of mass M=2[kg] that hangs on a string of length 0.8[m]. -M The center of mass of the pendulum goes up a distance of 0.4 [m]. a. What is the angle e at that point? b. What is the mass m of the bullet? c. How much, in Joule, of the initial kinetic energy went into "Waste" (heat, sound, deformation).

1. A bullet moving at v0=1500[m/] hits a ballistic pendulum of mass M=2[kg] that hangs on a string of length 0.8[m]. -M The center of mass of the pendulum goes up a distance of 0.4 [m]. a. What is the angle e at that point? b. What is the mass m of the bullet? c. How much, in Joule, of the initial kinetic energy went into "Waste" (heat, sound, deformation).

College Physics

11th Edition

ISBN:9781305952300

Author:Raymond A. Serway, Chris Vuille

Publisher:Raymond A. Serway, Chris Vuille

Chapter6: Momentum, Impulse, And Collisions

Section: Chapter Questions

Problem 63AP: A 2.0-g particle moving at 8.0 m/s makes a perfectly elastic head-on collision with a resting 1.0-g...

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