Figure 3. Inelastic Collision between carts of different masses and equal but oppositevelocities.cart#1cart#27562.55037.52512.50- 12.5-25125112.510087.57562.55037.5250position x(t)beforeafter50501001001.510.50-0.5-1-15-21.510.50-0.5-1-15velocity v(t)before5050aftertime (arb. units)10010021510.50-0.5-1-15-210.50-0.5- 1-1.5-2-2.5-300momentum p(t)beforeafter5050100100Also show total momentum inthe momentum graph for Cart #2 Inelastic Collision between carts of different masses and equal butopposite velocitiesRefer to figure 3. In this example, the masses of the two carts are againunequal, or m₁=1 unit, m₂=2 units. We turn the carts loose at their ends ofthe track with equal, but opposite velocities, or v₁=1 unit and v₂= -1 unit.Assume that the collision is inelastic (the carts stick together after colliding),consult eq. 5, complete the graph and describe the motion after thecollision.

Answered: Image /qna-images/answer/48b4ec7f-c476-46c0-a966-433ab52624fd.jpg

Inelastic Collision between carts of different masses and equal but opposite velocities Refer to figure 3. In this example, the masses of the two carts are again unequal, or m₁=1 unit, m²=2 units. We turn the carts loose at their ends of the track with equal, but opposite velocities, or V₁=1 unit and v₂= -1 unit. Assume that the collision is inelastic (the carts stick together after colliding), consult eq. 5, complete the graph and describe the motion after the collision.

Inelastic Collision between carts of different masses and equal but opposite velocities Refer to figure 3. In this example, the masses of the two carts are again unequal, or m₁=1 unit, m²=2 units. We turn the carts loose at their ends of the track with equal, but opposite velocities, or V₁=1 unit and v₂= -1 unit. Assume that the collision is inelastic (the carts stick together after colliding), consult eq. 5, complete the graph and describe the motion after the collision.

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)...

See similar textbooks

Similar questions

MO-6 The Meteor Crater in Arizona is about 1,200m wide and 200m deep. It is believed to have been formed 20,000 years ago when a meteor with a mass of 5.0x10"kg moving at 7.2km/s collided and merged with the earth. If the earth had been at rest prior to the collision, what would the speed of the earth have been after this collision? The mass of the earth is 5.98x10"kg. 24
Based on the principle conservation of linear momentum, which statement is true ? (Ma and Mp are masses of two objects a and b. Vaj and Vb; are the initial velocities of Mą and Mp respectively before collision. Vaf and Vbf are the final velocities of Ma and Mp respectively after collision.) MaVbit MoVai =MaVbpt MoVas None of the options available MVai + MBVbi = MVaf + MpVbf MaVai+MpVbf=MaVaf+ MbVbi MaVai+ MaVas=MBVbi+ MbVbf
A golf ball is moving at speed vo to the East. After deflecting off a tree, it moves at a speed of 0.90vo in a direction which is 25° North of East. Check all the following answers which are true statements. There may be more than one correct answer! The impulse vector (delivered by the tree) has components which point North and West The ball's momentum vector has the same magnitude before and after the collision The impulse vector (delivered by the tree) points purely to the North The ball's momentum vector decreases in magnitude during the collision
(Please include diagram or drawing) Two clay meteors, each with a mass m, collide in outer space and stick together. This collision occurs at a distance D from the center of the Earth. Following the collision, the combined meteors move towards the Earth. Before the collision: Meteor 1 has a velocity v1. Meteor 2 has a velocity v2. The velocities V1 and v2 are at right angles to each other. a) Calculate the fraction of kinetic energy lost during the collision of the two meteors. b) Determine the velocity of the stuck-together meteors just before they crash into the Earth assuming you know the mass and radius of earth. Air resistance can be neglected.
A body with mass of 5 kg is moving at a speed of 2 m/s and collides inelastically with another body with mass of 3 kg that stayed at rest before the collision. What speed will the bodies have after the collision?
please help me with this problem. Given: A ball of clay mass M/8 A larger mass as known as M is attached to a spring with spring constant k. A ball of clay mass "M/8" moves with speed "v" towards a larger mass M. As the a ball of clay hit and sticks on the a larger mass who was initially still. a) What would be the speed of the combination after the collision? b) How much did the spring compressed c) How long did it take for the spring to be compressed due to the collision?
Block 1 of mass 200 kg slides over a frictionless surface with a velocity of 0.25 cm/s and strikes block 2 of mass 100 kg sliding to the left at 0.75 cm/s. What is the final velocit y of each block if the collision is A) Perfectly elastic? B) Perfectly inelastic? C) If there is an external force of 4000 kg*cm/s^2 to the right for 0.008 s during the perfectly inelastic
Two masses, m, and m, move on the xy plane towards each other as shown in the figure. The first mass m,=1.1kg is moving with a speed v,=6.7m/s while m,-4.3kg is moving with a speed v,=10.6m/s . As a result of the collision m, comes to rest. What is the final speed of m,? Express your answer using two decimal places. Before the collision
In an Atwoods Machine lab with m1 = 0.1 and m2 = 0.13 observed acceleration is 1.20 m/s^2. Compare the value with the a(theoretical). During the momentum collision lab a 2.5kg mass moving with 2m/s hits a stationary 5kg mass. After the collision 2.5kg bounces back with 0.5m/s and 5kg mass moves with 1.2 m/s. Calculate Pi and Pf and compare using percent error. Does this experiment show conservation of momentum?
A point particle of mass 3.33 kg is moving with an initial velocity of 2.06 m/s . It collides and sticks to an object of mass 4.58 moving at velocity of -1.67 m/s before collision. What is the speed of the particles after collision? Express your answer in m/s and with two decimal places.
A particle of mass m₁ and velocity v₁ hits the stationary particle of mass m2. After the collision, the outgoing speeds of these particles are equal. Considering elastic collision what is the angle between velocities of the particles after collision? Mass m₁ = 2m2.
Lucy is cruising through space in her new spaceship. As she coasts along, a tiny spacebug drifts into her path and bounces off the window. Consider several statements concerning this scenario. Evaluate each statement according to the law of momentum conservation and match it to the appropriate category. Must be true according to the law of momentum conservation Must be false according to the law of momentum conservation Answer Bank Not determined by the law of momentum conservation If the spacebug had stuck to the spaceship instead of bouncing off, momentum would not have been conserved for this interaction. The change in the spacebug's momentum during the collision is greater than the change in the spaceship's momentum. The total chanaa in momentum for this interaction is nem The total momentum of the spaceship and spacebug before the collision is equal to their total momentum afterward. 日示全部 X