Identical forces act for the same length of time on two different objects. The magnitude of the change inmomentum of the lighter object isO exactly equal to the magnitude of the change in momentum of the larger mass.O There is not enough information to answer the question.zero.larger than the magnitude of the change in momentum of the larger mass.O smaller than the magnitude of the change in momentum of the larger mass, but not zero.

Given :- Equal force act for the same time interval on two different objects.

Identical forces act for the same length of time on two different objects. The magnitude of the change in momentum of the lighter object is O exactly equal to the magnitude of the change in momentum of the larger mass. There is not enough information to answer the question. zero. larger than the magnitude of the change in momentum of the larger mass. O smaller than the magnitude of the change in momentum of the larger mass, but not zero.

Identical forces act for the same length of time on two different objects. The magnitude of the change in momentum of the lighter object is O exactly equal to the magnitude of the change in momentum of the larger mass. There is not enough information to answer the question. zero. larger than the magnitude of the change in momentum of the larger mass. O smaller than the magnitude of the change in momentum of the larger mass, but not zero.

University Physics Volume 1

18th Edition

ISBN:9781938168277

Author:William Moebs, Samuel J. Ling, Jeff Sanny

Publisher:William Moebs, Samuel J. Ling, Jeff Sanny

Chapter9: Linear Momentum And Collisions

Section: Chapter Questions

Problem 34P: A ball of mass 250 g is thrown with an initial velocity of 25 m/s at an angle of 30 with the...

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Similar questions

(a) What is the mass of a large ship that has a momentum of 1.60109kgm/s, when the ship is moving at a speed of 48.0 km/h? (b) Compare the ship's momentum to the momentum of a 1100-kg artillery shell fired at a speed of 1200 m/s.
The figure below shows a bullet of mass 200 g traveling horizontally towards the east with speed 400 m/s, which strikes a block of mass 1.5 kg that is initially at rest on a frictionless table. After striking the block, the bullet is embedded in the block and the block and the bullet move together as one unit. a. What is the magnitude and direction of the velocity of the block/bullet combination immediately after the impact? b. What is the magnitude and direction of the impulse by the block on the bullet? c. What is the magnitude and direction of the impulse from the bullet on the block? d. If it took 3 ms for the bullet to change the speed from 400 m/s to the final speed after impact, what is the average force between the block and the bullet during this time?
A ball of mass 250 g is thrown with an initial velocity of 25 m/s at an angle of 30 with the horizontal direction. Ignore air resistance. What is the momentum of the ball after 0.2 s? (Do this problem by finding the components of the momentum first, and then constructing the magnitude and direction of the momentum vector from the components.)
An amateur skater of mass M is trapped in the middle of an ice rink and is unable to return to the side where there is no ice. Every motion she makes causes her to slip on the ice and remain in the same spot. She decides to try to return to safety by throwing her gloves of mass m in the direction opposite the safe side. (a) She throws the gloves as hard as she can, and they leave her hand with a horizontal velocity vgloves. Explain whether or not she moves. (b) If she does move, calculate her velocity vgirl relative to the Earth after she throws the gloves. (c) Discuss her motion from the point of view of the forces acting on her.
Estimate the magnitude of the momentum of a car on the highway.
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In a head-on, inelastic collision, a 4,000-kg truck going 10 m/s east strikes a 1,000-kg car going 20 m/s west. (a) What is the speed and direction of the wreckage? (b) How much kinetic energy was lost in the Collision?
(a) A car traveling due east strikes a car traveling due north at an intersection, and the two move together as a unit. A property owner on the southeast corner of the intersection claims that his fence was torn down in the collision. Should he be awarded damages by the insurance company? Defend your answer, (b) Let the eastward-moving car have a mass of 1.30 103-kg and a speed of 30.0 km/h and the northward-moving car a mass of 1.10 103-kg and a speed of 20.0 km/h. Find the velocity after the collision. Are the results consistent with your answer to part (a)?
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(a) A 5.00-kg squid initially at rest ejects 0.250 kg of fluid with a velocity of 10.0 m/s. What is the recoil velocity of the squid if the ejection is done in 0.100 s and there is a 5.00-N frictional force opposing the squid’s movement? (b) How much energy is lost to work done against friction?