10. A rubber ducky (located at x = 0 m) that floats on a lake and bobs up and down due to one dimensional water y (in cm) at t=0 6. waves. Shown are a y(x) graph that depicts the water wave as a function of position at the time t = 0 s and a y(t) graph that depicts the vertical displacement of rubber ducky as a function of time. 4 At 2 x (in m) 2 3 -4 In this question you are to assume that you are trying to fit the general equation for a travelling sine wave given by: -6 y (in cm) at x=0 y(x,t) = Asin t (in s) -2 -4 -6 What is the wavelength (in m) and period (in s) of this water wave? a. b. What is the velocity of this water wave (both speed and direction)? c. What is the value of ø (i.e. the phase constant) for this water wave (in radians)?

10. A rubber ducky (located at x = 0 m) that floats on a lake and bobs up and down due to one dimensional water y (in cm) at t=0 6. waves. Shown are a y(x) graph that depicts the water wave as a function of position at the time t = 0 s and a y(t) graph that depicts the vertical displacement of rubber ducky as a function of time. 4 At 2 x (in m) 2 3 -4 In this question you are to assume that you are trying to fit the general equation for a travelling sine wave given by: -6 y (in cm) at x=0 y(x,t) = Asin t (in s) -2 -4 -6 What is the wavelength (in m) and period (in s) of this water wave? a. b. What is the velocity of this water wave (both speed and direction)? c. What is the value of ø (i.e. the phase constant) for this water wave (in radians)?

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

Two rocks are simultaneously dropped into a pond, creating the ripples shown. As they overlap, the ripples interfere. At the point marked with a dot, A. The interference is constructive. B. The interference is destructive. C. The interference is somewhere between constructive and destructive. D. There's not enough information to tell about the interference. What is the extra distance As traveled by one wave to the dot compared to the other? Α. Ο C. A 31 D. F. 4 5A B. E. 21 R, R, R I2 I3 Select all loop rules that apply to this circuit. SELECT ALL THAT APPLY A. 0 = -V +1,R2 – 1R1 B. 0 = V2 – 13R3- lR2 – Vị C. 0 = 4R1 – V2 – I3R3 D. 0 = -V – 1R2 + I¼R1 E. 0 = -V2 – I3R3 + 1½R2 +V1 F. 0 = 1, R, +V2 + I,R3 G. 0 = -V +I,R2 + I,Rq H. 0 = V2 + I3R3 + 1,R2 – V1 I. 0 = 1,R1 - V2 + I3R3 J. 0 = -V- I½R2 + I, R1 K. 0 = -V2 + I3R3 + 12R2 - V2 L. 0 = -1,R – V½ – 13R3 wwT ww
6. Oscillations and sounds:a.A wave with wavelength 27 m and time between crests of 0.5 s is traveling in water. What is wavelength, frequency,period, and the wave speed? b. You blow into one end close pipe and produce a tone. Explain what happens to the frequency of the tone if you open both ends of the pipe and blow into it again? c. A car moving away from you at the speed of 50.0 m/s while you are standing on the sidewalk. The engine produces sound at 27 Hz and the speed of sound is 340 m/s. What is the frequency you hear?
Two waves travelling at the same speed. Which statements about the figure below are correct? Group of answer choices Double the amplitude of a double the speed it travels. Amplitude of a is twice the amplitude of b. A has a lower frequency than b. A has a higher frequency than b. Amplitude of a is half the amplitude of b.
Select all of the following statements which are true about transverse and longitudinal wave (Select all that apply) A. Transverse waves can move through solid, liquids and gasses. B. Longitudinal waves can move through solid, liquids and gasses. C. Transverse waves can only move through solids D. Longitudinal waves can only move through solids. E. Transverse waves can only move through liquids. F. Longitudinal waves can only move through liquids. G. Transverse waves can only move through gasses. H. Longitudinal waves can only move through gasses.
a. Explain how sound waves are propagated through air. Are these longitudinal or transverse waves? b. Describe the motion of individual air molecules at a node and at an antinode. Compare this to the motion of the individual spring coils at nodes and antinodes when a standing wave is produced in a slinky. c. What is the effect of changing the frequency of the sound? Does it change the velocity of the wave? Does it change the wavelength?
Wave velocity do the following calculations.a. Find the velocity of a wave where λ = 50 m and d = 20 m.b. Determine the depth of the water if a wave with λ = 15 m is traveling at v = 4.5 m/s.
my choice Waves travel along a spring at a speed of 1.7 m/s. If the frequency of the source is 7.5 Hz, then what is the wavelength? Select one: O a. 13 m O b. 44 m O c. 0.23 m O d. 4.4 m A sound wave generated from a tuning fork of single frequency travels from air (with speed of sound 340 m/s) into rock (with Which statement is true about the wavelength and frequency of the sound as it passes from air to rock? Select one: Q Search hp
Q3: write an equation for a sine wave with amplitude 0.15 m, wavelength 0.85 m, and wave speed 9.5 m/s travelling in the +x direction.
1. A brother and sister make a home-made telephone using a string tied between two tin cans. The string is 9.5 m long, has a mass of 32 g, and is pulled taut with a tension of 8.6 N. a. How much time does it take for a wave to travel from one end of the string to the other? b. Suppose the tension were increased. What effect, if any, would this have on the wave's travel time?
2 WA2: The same wave is represented in the snapshot and history graphs. A. Determine the wavelength and amplitude of the wave. B. Determine the period and frequency of the wave. C. What is the wave's speed? y (m) OUTCOME WA2 I can describe and analyze the properties of traveling waves y (m) 1.0 2.0 3.0 4.0 5.0 0.5 1.0 ^^^ 1.5 x (m) T 2.0 t (s)
Identical waves are in phase if they have different phase shifts. a. true b. false
1. On OCEAN and during NIGHT TIME, how does sound effectively propagate over a long enough distance if initially directed horizontally? A. Sound flies. B. Sound sinks. C. Sound flies then sinks. D. Sound sinks then flies. E. Sound propagates in a straight path. 2. On LAND and during NIGHT TIME, how does sound effectively propagate over a long enough distance if initially directed horizontally? A. Sound flies. B. Sound sinks. C. Sound flies then sinks. D. Sound sinks then flies. E. Sound propagates in a straight path. 3. On OCEAN and during DAY TIME, how does sound effectively propagate over a long enough distance if initially directed horizontally? A. Sound flies. B. Sound sinks. C. Sound flies then sinks. D. Sound sinks then flies. E. Sound propagates in a straight path.