A string has length 2.0 m, tension 60 N, and linear density 0.080 kg/m. The leftend of the string is connected to a massless ring that slides on a frictionless pole,and the ring is attached to a spring of stiffness 150 N/m. The right end is attachedto a massless ring that slides on a frictionless pole. The left end of the string isdriven by a transverse force of amplitude 4.0 N and frequency 21 Hz.F(t)Sx = 0x = L2. The input mechanical impedance (at x = 0) is Zmo = s/im + ipLc tan(kL). Usingestablished impedances (do not calculate), explain why the input impedance isgiven by this expression. Evaluate the impedance for the specified values of thesystem. Be sure to show the units. Note: In the computation of the tangent, donot round off the value of k. From the value of the impedance, determine thesteady-state velocity amplitude (in m/s) of the left ring.

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Description: A string has length 2.0 m, tension 60 N, and linear density 0.080 kg/m. The leftend of the string is connected to a massless ring that slides on a frictionless pole,and the ring is attached to a spring of stiffness 150 N/m. The right end is attached

Given:- A string has length L= 2.0 m The tension T = 60 N The linear density 0.080 kg/m The ring…

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A string has length 2.0 m, tension 60 N, and linear density 0.080 kg/m. The left end of the string is connected to a massless ring that slides on a frictionless pole, and the ring is attached to a spring of stiffness 150 N/m. The right end is attached to a massless ring that slides on a frictionless pole. The left end of the string is driven by a transverse force of amplitude 4.0N and frequency 21 Hz. F(t) x = 0 x = L 2. The input mechanical impedance (at x = 0) is Zmo = s/im + ipLc tan(kL). Using established impedances (do not calculate), explain why the input impedance is given by this expression. Evaluate the impedance for the specified values of the system. Be sure to show the units. Note: In the computation of the tangent, do not round off the value of k. From the value of the impedance, determine the steady-state velocity amplitude (in m/s) of the left ring.

A string has length 2.0 m, tension 60 N, and linear density 0.080 kg/m. The left end of the string is connected to a massless ring that slides on a frictionless pole, and the ring is attached to a spring of stiffness 150 N/m. The right end is attached to a massless ring that slides on a frictionless pole. The left end of the string is driven by a transverse force of amplitude 4.0N and frequency 21 Hz. F(t) x = 0 x = L 2. The input mechanical impedance (at x = 0) is Zmo = s/im + ipLc tan(kL). Using established impedances (do not calculate), explain why the input impedance is given by this expression. Evaluate the impedance for the specified values of the system. Be sure to show the units. Note: In the computation of the tangent, do not round off the value of k. From the value of the impedance, determine the steady-state velocity amplitude (in m/s) of the left ring.

College Physics

11th Edition

ISBN:9781305952300

Author:Raymond A. Serway, Chris Vuille

Publisher:Raymond A. Serway, Chris Vuille

Chapter13: Vibrations And Waves

Section: Chapter Questions

Problem 32P: A spring of negligible mass stretches 3.00 cm from its relaxed length when a force of 7.50 N is...

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