A pendulum is swinging back and forth in periodic motion. At the highest point (the momentthat the pendulum stops moving up), the mass at the end has a gravitational potential energyof 3.0 J. As it swings down, there is a point at which the gravitational potential energy isreduced to 1.0 J. What is true about the energy of the pendulum during this time?Your answer:The kinetic energy will remain constant during this motion.The gravitational energy and kinetic energy are both going to be 1.0 J at the same time.The kinetic energy will be 2.0 J when the gravitational potential energy is 1.0 J.The total energy of the pendulum will increase and decrease as it moves.

Name: A pendulum is swinging back and forth in periodic motion. At the high
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Description: A pendulum is swinging back and forth in periodic motion. At the highest point (the momentthat the pendulum stops moving up), the mass at the end has a gravitational potential energyof 3.0 J. As it swings down, there is a point at which the gravitat

Kinetic energy will be 2.0 J when the gravitational potential energy is 1.0J.

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A pendulum is swinging back and forth in periodic motion. At the highest point (the moment that the pendulum stops moving up), the mass at the end has a gravitational potential energy of 3.0 J. As it swings down, there is a point at which the gravitational potential energy is reduced to 1.0 J. What is true about the energy of the pendulum during this time?

A pendulum is swinging back and forth in periodic motion. At the highest point (the moment that the pendulum stops moving up), the mass at the end has a gravitational potential energy of 3.0 J. As it swings down, there is a point at which the gravitational potential energy is reduced to 1.0 J. What is true about the energy of the pendulum during this time?

College Physics

11th Edition

ISBN:9781305952300

Author:Raymond A. Serway, Chris Vuille

Publisher:Raymond A. Serway, Chris Vuille

Chapter1: Units, Trigonometry. And Vectors

Section: Chapter Questions

Problem 1CQ: Estimate the order of magnitude of the length, in meters, of each of the following; (a) a mouse, (b)...

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