a.k=0.06% rad/cm; T=0.08 s; @=24* rad/cmb.y = 20 cos (24% rad/ct-0.06% rad/cm x)c.y=-6.18Option 5a.k=0.067 rad/cm; T=0.08 s; w=24π rad/cmb.y = 20 cos (24z rad/ct-0.06% rad/cm x)c.y = 6.18Option 6a.k=0.06 rad/cm; T=0.08 s; w=24m rad/cmb.y = 20 sin (24π rad/ct +0.067 rad/cm x)c.y=-6.18Option 2a.k=0.06% rad/cm; T=0.08 s; w=24% rad/cmb.y = 20 sin (24% rad/ct-0.067 rad/cm x)c.y = -6.18Option 3a.k=0.067 rad/cm; T=0.08 s; w=24% rad/cmb.y = 20 cos (24m rad/ct+ 0.067 rad/cm x)cy=-6.18Option 1a.k=0.06m rad/cm; T=0.08 s; w=24% rad/cmb.y = 20 sin (24π rad/ct+ 0.067 rad/cm x)c.y = 6.18Option 4 A sinusoidal wave on a string is traveling to the left with an amplitude of20 cm, wavelength of 35 cm, and frequency of 12 Hz. The transverseposition of an element of the medium at t=0, x=0 has maximumdisplacement and is moving downward.Find:a. wave number, period, angular frequency.b. wave function y (x, t) describing the wavec. the transverse displacement of the particle at x=10 cm and t=0.5 s.

Given: Amplitude of wave = 20 cm Wavelength = 35 cm Frequency = 12 Hz At t = 0, x = 0, Maximum…

A sinusoidal wave on a string is traveling to the left with an amplitude of 20 cm, wavelength of 35 cm, and frequency of 12 Hz. The transverse position of an element of the medium at t=0, x=0 has maximum displacement and is moving downward. Find: a. wave number, period, angular frequency. b. wave function y (x, t) describing the wave c. the transverse displacement of the particle at x=10 cm and t=0.5 s.

A sinusoidal wave on a string is traveling to the left with an amplitude of 20 cm, wavelength of 35 cm, and frequency of 12 Hz. The transverse position of an element of the medium at t=0, x=0 has maximum displacement and is moving downward. Find: a. wave number, period, angular frequency. b. wave function y (x, t) describing the wave c. the transverse displacement of the particle at x=10 cm and t=0.5 s.

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)...

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Concept explainers

Stretched string

A stretched string is a wire which is made up of any metal that must have a larger length compared to its thickness. The ends of the wire are fixed, and when they oscillate or are plucked, it produces two reflected transverse waves of the same frequency and same amplitude. The waves or pulses are traveling in alternate directions and superimpose with one another. This waveform is named standing or stationary waves.

Question

100%

a.k=0.06% rad/cm; T=0.08 s; @=24* rad/cm
b.y = 20 cos (24% rad/ct-0.06% rad/cm x)
c.y=-6.18
Option 5
a.k=0.067 rad/cm; T=0.08 s; w=24π rad/cm
b.y = 20 cos (24z rad/ct-0.06% rad/cm x)
c.y = 6.18
Option 6
a.k=0.06 rad/cm; T=0.08 s; w=24m rad/cm
b.y = 20 sin (24π rad/ct +0.067 rad/cm x)
c.y=-6.18
Option 2
a.k=0.06% rad/cm; T=0.08 s; w=24% rad/cm
b.y = 20 sin (24% rad/ct-0.067 rad/cm x)
c.y = -6.18
Option 3
a.k=0.067 rad/cm; T=0.08 s; w=24% rad/cm
b.y = 20 cos (24m rad/ct+ 0.067 rad/cm x)
cy=-6.18
Option 1
a.k=0.06m rad/cm; T=0.08 s; w=24% rad/cm
b.y = 20 sin (24π rad/ct+ 0.067 rad/cm x)
c.y = 6.18
Option 4

A sinusoidal wave on a string is traveling to the left with an amplitude of
20 cm, wavelength of 35 cm, and frequency of 12 Hz. The transverse
position of an element of the medium at t=0, x=0 has maximum
displacement and is moving downward.
Find:
a. wave number, period, angular frequency.
b. wave function y (x, t) describing the wave
c. the transverse displacement of the particle at x=10 cm and t=0.5 s.

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