Block m, of mass 15 kg moving with velocity v = 33 m/s on a frictionless plane collides block m, which is connected to blockm3 by a long, massless spring with spring constant k = 7000 N/m: see the figure. Each of blocks mą and mg has a mass of 5 kg.Before the collision, blocks mą and mg are stationary and the spring is relaxed.m,m2myFrictionless-For parts A. B and C assume that the collision of blocks m, and m2 is completely inelastic. (Because the spring is relaxedbefore the collision, block m3 does not move at the instant of impact. therefore (m, +m2) must move through a finitedisplacement before any force acts on mg and cause it to move.)• For parts D and E assume that the collision of blocks m, and mą is elastic. (Because the spring is relaxed before thecollision. block mg does not move at the instant of impact therefore mą must move through a finite displacement before anyforce acts on mg and cause it to move.)C) After the collision, what is the maximum compression of the spring in units of meters?Answer:

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Description: Block m, of mass 15 kg moving with velocity v = 33 m/s on a frictionless plane collides block m, which is connected to blockm3 by a long, massless spring with spring constant k = 7000 N/m: see the figure. Each of blocks mą and mg has a mass of 5 kg.

Given data: Mass of the first box m1=15 kg Velocity v1=33 m/s Spring constant k =7000N/m\ Mass of…

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Block m, of mass 15 kg moving with velocity v = 33 m/s on a frictionless plane collides block mą which is connected to b m3 by a long, massless spring with spring constant k = 7000 N/m: see the figure. Each of blocks mą and mg has a mass Before the collision, blocks mą and mg are stationary and the spring is relaxed. m, m2 my Frictionless- For parts A. B and C assume that the collision of blocks m, and m2 is completely inelastic. (Because the spring is re before the collision, block mg does not move at the instant of impact, therefore (m1 +m2) must move through a finite displacement before any force acts on mg and cause it to move.) For parts D and E assume that the collision of blocks m, and mą is elastic. (Because the spring is relaxed before the collision. block mg does not move at the instant of impact therefore mą must move through a finite displacement befor force acts on mg and cause it to move.)

Block m, of mass 15 kg moving with velocity v = 33 m/s on a frictionless plane collides block mą which is connected to b m3 by a long, massless spring with spring constant k = 7000 N/m: see the figure. Each of blocks mą and mg has a mass Before the collision, blocks mą and mg are stationary and the spring is relaxed. m, m2 my Frictionless- For parts A. B and C assume that the collision of blocks m, and m2 is completely inelastic. (Because the spring is re before the collision, block mg does not move at the instant of impact, therefore (m1 +m2) must move through a finite displacement before any force acts on mg and cause it to move.) For parts D and E assume that the collision of blocks m, and mą is elastic. (Because the spring is relaxed before the collision. block mg does not move at the instant of impact therefore mą must move through a finite displacement befor force acts on mg and cause it to move.)

Glencoe Physics: Principles and Problems, Student Edition

1st Edition

ISBN:9780078807213

Author:Paul W. Zitzewitz

Publisher:Paul W. Zitzewitz

Chapter9: Momentum And Its Conservation

Section: Chapter Questions

Problem 70A

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