Note: The diagram shown below is a top-down view. Imagine that that process is occurring on a table and that you are looking down at it.* Two projectiles of mass 4-kg and 12-kg traveling at 10-m/s and 20-m/s, respectively, undergo a completely inelastic collision at the intersection of their lines of travel, as shown below. Prior to the collision the projectiles travel along a frictionless surface; however, after the collision the surface is rough and is characterized by a coefficient of kinetic friction of 0.15. At what angle should a spring of constant 80-N/m be placed in order to “catch” the projectiles after the collision? If the spring is located 4-m away from the collision point, what will be the maximum compression of said spring?
Note: The diagram shown below is a top-down view. Imagine that that process is occurring on a table and that you are looking down at it.* Two projectiles of mass 4-kg and 12-kg traveling at 10-m/s and 20-m/s, respectively, undergo a completely inelastic collision at the intersection of their lines of travel, as shown below. Prior to the collision the projectiles travel along a frictionless surface; however, after the collision the surface is rough and is characterized by a coefficient of kinetic friction of 0.15. At what angle should a spring of constant 80-N/m be placed in order to “catch” the projectiles after the collision? If the spring is located 4-m away from the collision point, what will be the maximum compression of said spring?
College Physics
1st Edition
ISBN:9781938168000
Author:Paul Peter Urone, Roger Hinrichs
Publisher:Paul Peter Urone, Roger Hinrichs
Chapter16: Oscillatory Motion And Waves
Section: Chapter Questions
Problem 5PE: When an 80.0kg man stands on a pogo stick, the spring is compressed 0.120 m. (a) What is the force...
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*Note: The diagram shown below is a top-down view. Imagine that that process is occurring on a table and that you are looking down at it.* Two projectiles of mass 4-kg and 12-kg traveling at 10-m/s and 20-m/s, respectively, undergo a completely inelastic collision at the intersection of their lines of travel, as shown below. Prior to the collision the projectiles travel along a frictionless surface; however, after the collision the surface is rough and is characterized by a coefficient of kinetic friction of 0.15.
- At what angle should a spring of constant 80-N/m be placed in order to “catch” the projectiles after the collision?
- If the spring is located 4-m away from the collision point, what will be the maximum compression of said spring?
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