• As shown in the figure below, two blocks (m, and m₂) are each released from rest at a height of h 4.08 m on a frictionless track and when they meet on the horizontal section of the track they undergo an elastic collision It m,-2.50 kg and my 445 kg, determine the maximum heights (in m) to which they rise after the collision. Use the coordinate system shown in the figure. Yu The problem may be divided into three steps. Step one, the blocks side down the curve and onto the horizontal section of the track. What physical quantities are conserved for this step of the problem? See if you can write an appropriate conservation statement for this step that will allow you to determine the x component of the velocity of the blocks on the horizontal section of track and going into the collision Step two, the blocks undergo an elastic collision on the horizontal section of the track. What physical quantities are conserved for this step of the problem? See if you can write appropriate conservation statements for this step of the problem that will allow you to determine the x component of the velocity of the blocks after the collision. Step three, the blocks slide back up the curved section of the track. How is this step similar to and different from the first step? What physical quantities are conserved for this step of the problem? See if you can write an appropriate conservation statement for this step that will show you to determine the final height the blocks reach as they travel back up the curved section of the track m
• As shown in the figure below, two blocks (m, and m₂) are each released from rest at a height of h 4.08 m on a frictionless track and when they meet on the horizontal section of the track they undergo an elastic collision It m,-2.50 kg and my 445 kg, determine the maximum heights (in m) to which they rise after the collision. Use the coordinate system shown in the figure. Yu The problem may be divided into three steps. Step one, the blocks side down the curve and onto the horizontal section of the track. What physical quantities are conserved for this step of the problem? See if you can write an appropriate conservation statement for this step that will allow you to determine the x component of the velocity of the blocks on the horizontal section of track and going into the collision Step two, the blocks undergo an elastic collision on the horizontal section of the track. What physical quantities are conserved for this step of the problem? See if you can write appropriate conservation statements for this step of the problem that will allow you to determine the x component of the velocity of the blocks after the collision. Step three, the blocks slide back up the curved section of the track. How is this step similar to and different from the first step? What physical quantities are conserved for this step of the problem? See if you can write an appropriate conservation statement for this step that will show you to determine the final height the blocks reach as they travel back up the curved section of the track m
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 31P: a man of mass m1 = 70.0 kg is skating at v1 = 8.00 m/s behind his wife of mass m2 = 50.0 kg, who is...
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![As shown in the figure below, two blocks (m, and m₂) are each released from rest at a height of h 4.08 m on a frictionless track and when they meet on the horizontal section of the track they undergo an
elastic collision
If m, -2.50 kg and my -4.45 kg, determine the maximum heights (in m) to which they rise after the collision. Use the coordinate system shown in the figure.
Yu
Yar
The problem may be divided into three steps. Step one, the blocks slide down the curve and onto the horizontal section of the track. What physical quantities are conserved for this step of the problem?
See if you can write an appropriate conservation statement for this step that will allow you to determine the component of the velocity of the blocks on the horizontal section of track and going into the
collision step two, the blocks undergo an elastic collision on the horizontal section of the track. What physical quantities are conserved for this step of the problem? See if you can write appropriate
conservation statements for this step of the problem that will allow you to determine the x component of the velocity of the blocks after the collision. Step three, the blocks slide back up the curved section
of the track. How is this step similar to and different from the first step? What physical quantities are conserved for this step of the problem? See if you can write an appropriate conservation statement for
this step that will allow you to determine the final height the blocks reach as they travel back up the curved section of the track.m
Ainal Materiale](/v2/_next/image?url=https%3A%2F%2Fcontent.bartleby.com%2Fqna-images%2Fquestion%2Ff413a13f-4ccc-4089-b9ed-1c21a38ff098%2Fd81c9976-4d65-4690-bc64-0095ec69107e%2F95l2s8j_processed.jpeg&w=3840&q=75)
Transcribed Image Text:As shown in the figure below, two blocks (m, and m₂) are each released from rest at a height of h 4.08 m on a frictionless track and when they meet on the horizontal section of the track they undergo an
elastic collision
If m, -2.50 kg and my -4.45 kg, determine the maximum heights (in m) to which they rise after the collision. Use the coordinate system shown in the figure.
Yu
Yar
The problem may be divided into three steps. Step one, the blocks slide down the curve and onto the horizontal section of the track. What physical quantities are conserved for this step of the problem?
See if you can write an appropriate conservation statement for this step that will allow you to determine the component of the velocity of the blocks on the horizontal section of track and going into the
collision step two, the blocks undergo an elastic collision on the horizontal section of the track. What physical quantities are conserved for this step of the problem? See if you can write appropriate
conservation statements for this step of the problem that will allow you to determine the x component of the velocity of the blocks after the collision. Step three, the blocks slide back up the curved section
of the track. How is this step similar to and different from the first step? What physical quantities are conserved for this step of the problem? See if you can write an appropriate conservation statement for
this step that will allow you to determine the final height the blocks reach as they travel back up the curved section of the track.m
Ainal Materiale
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