A string is stretched so that it is under tension and is tied at both ends so that the endpoints don't move. A mechanical oscillator then vibrates the string so that a standing wave is created. The dark line in each diagram represents a snapshot of a string at an instant in time when the amplitude of the standing wave is a maximum. The lighter lines represent the string at other times during a complete cycle. All of the strings are identical except for their lengths, and all strings have the same tension. The number of nodes and antinodes in each standing wave is different. The lengths of the strings (L) and the amplitudes at the antinodes (A) are given in each figure. ΤΑ B C A = 12 cm A = 18 cm L = 25 cm L = 27 cm D A = 12 cm A = 16 cm L = 28 cm L = 28 cm

A string is stretched so that it is under tension and is tied at both ends so that the endpoints don't move. A mechanical oscillator then vibrates the string so that a standing wave is created. The dark line in each diagram represents a snapshot of a string at an instant in time when the amplitude of the standing wave is a maximum. The lighter lines represent the string at other times during a complete cycle. All of the strings are identical except for their lengths, and all strings have the same tension. The number of nodes and antinodes in each standing wave is different. The lengths of the strings (L) and the amplitudes at the antinodes (A) are given in each figure. ΤΑ B C A = 12 cm A = 18 cm L = 25 cm L = 27 cm D A = 12 cm A = 16 cm L = 28 cm L = 28 cm

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

Related questions

Q: A 2.0 kg mass is attached to a string as shown. The mass/length of the string is 5.00 g/m. Determine…

Q: From the first image, we know that it is a graph that shows a particle's movement on a string as a…

Q: Which of the following statements is TRUE regarding waves? * The speed of a sound wave does O not…

A: Answer :- The speed of a sound wave does not depend on how loud or quiet the sound is.

Q: If the wavelength is 0.8 m and the frequency is 2 Hz, what is the speed at which the wave moves…

A: Given,wavelength λ=0.8mfrequency f=2Hz

Q: A string is stretched so that it is under tension and is tied at both ends so that the endpoints…

Q: A long, taut string is attached to a distant wall (see figure). A demonstrator moves their hand and…

A: Given : A long, taut string is attached to a distant wall. A demonstrator moves their hand and…

Q: You are playing the guitar and tune a string by tightening a knob. Assume this is the only thing…

Q: A 2.2 m long string is fixed at both ends and tightened until the speed is 55 m/s. What is the…

A: Given in question - Length(L) = 2.2 mSpeed(v) = 55 m/sTo find - Frequency(F).

Q: s and ? = 0.1 a, What is the wave amplitude? b, What is the wavelength? c, What is the wavelength

A: Hello. Since your question has multiple sub-parts, we will solve the first three sub-parts for you.…

Q: What mathematical relationship exists between the wave speed and the density of the medium, using…

A: Given, The trend line of graph is y = 199.99x-0.5 Where y is wave speed in cm/s and x is density.

Q: The image below is of a graph that shows a particle's movement on a string as a function of…

A: Given:

Q: A long, taut string is attached to a distant wall (see figure). A demonstrator moves their hand and…

Q: For the following graphs, in which direction is the wave traveling? What is its speed? What is the…

A: Wave propagation : basically wave propagation is the movement of waves. therefore every wave has…

Q: A long string is stretched and its left end is oscillated upward and downward. Two points on the…

Q: Two identical guitar strings are prepared such that they have the same length (0.66 m) and are under…

A: Ans:- Image-1

Q: The wave pulses as shown travel along the same string. Rank in order, from largest to smallest,…

A: Given Three waves pulses are traveling in the same string The velocity of these three wave pulses…

Q: Two traveling pulses on a rope move toward each other at a speed of 1.0 m/s. The waves have the same…

A: Given: Two travelling pulses on a rope move toward each other at a speed of 1.0 m/s. The waves have…

Q: A transverse wave is moving to the right as shown. Which particle moves fastest at this moment? O P…

A: A transverse wave is moving to the right as shown

Q: A wave travels at a constant speed alor string. Which of the following statemen FALSE about the…

A: A wave travels at a constant speed along a string.

Q: A wave is traveling down a rope at 5 m/s. A history plot of the wave is shown in the figure below. 2…

A: Concept used: The method of calculating wave properties can be determined from the way they are…

Q: A steel wire in a piano has a length of 1.18m and a mass of 5.9grams. The wire is stretched under…

A: Given that For a steel wire which is fixed at both ends Length of the wire L = 1.18 m Mass of the…

Q: The figure below shows two representations of a traveling wave on a string. The top representation…

A: Given, ymax =6.00 cmxmax = 80.0 cmTmax = 70.0 cm

Q: Position vs. Time 3 -3 -4 -5 2. Time (sec) For the wave diagram given above, there are complete…

A: Dear student The amplitude is expressed as maximum displacememt from mean position. Also the time…

Q: A string is stretched so that it is under tension and is tied at both ends so that the endpoints…

A: The frequency of the wave generated by the string fixed at both the ends is given by,

Q: A stretched-out Slinky spring is shaken rapidly (4 complete up-and-down shakes per second). A…

A: Given data: Frequency (f) = 4 Hz Wavelength (λ) = 0.72 m Required: Velocity (v)

Q: The figure below shows two wave pulses in a stretched spring moving in opposite directions. The…

A: The interference of waves occurs when two waves meet while traveling through a medium.There are two…

Q: A string is set vibrating and held fixed at both ends. When the tension is 16N, a resonance with 3…

Q: The figure above shows a pole with a spring around it and a 2.5 kg block with a hole in the middle…

A: Given that the frequency of the standing wave is 10Hz, and the spring-mass (m=2.5) system also…

Q: L

Q: A rubber ducky (located at x = 0 m) floats on a lake and bobs up and down due to one dimensional…

Q: A string is stretched so that it is under tension and is tied at both ends so that the endpoints…

A: Given : Waves in a string . As the distance traveled by one wave is called wavelength. (i) In…

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

A string is stretched so that it is under tension and is tied at both ends so that the endpoints don't move. A mechanical oscillator then vibrates the string so that a standing wave is created.
The dark line in each diagram represents a snapshot of a string at an instant in time when the amplitude of the standing wave is a maximum. The lighter lines represent the string at other
times during a complete cycle. All of the strings are identical except for their lengths, and all strings have the same tension. The number of nodes and antinodes in each standing wave is
different. The lengths of the strings (L) and the amplitudes at the antinodes (A) are given in each figure.
A
B
C
A = 12 cm
A = 18 cm
L = 25 cm
L = 27 cm
Rank the frequencies of the waves from greatest to least. Explain your reasoning.
D
A = 12 cm
A = 16 cm
L = 28 cm
L = 28 cm

Expert Solution

This question has been solved!

Explore an expertly crafted, step-by-step solution for a thorough understanding of key concepts.

This is a popular solution!

SEE SOLUTION Check out a sample Q&A here

Step 1: Conceptual Introduction

VIEW

Step 2: Calculation of the frequencies

VIEW

Solution

VIEW

Trending now

This is a popular solution!

Step by step

Solved in 3 steps with 1 images

SEE SOLUTION Check out a sample Q&A here

Knowledge Booster

Learn more about

Need a deep-dive on the concept behind this application? Look no further. Learn more about this topic, physics and related others by exploring similar questions and additional content below.

Similar questions

All of the strings below exhibit standing waves. All of the strings are identical except for their lengths, the images are not drawn to scale, and all of the string tensions are identical. The string lengths and the standing wave amplitudes are given in each figure. Which of the following represents the correct ranking of frequencies, from GREATEST to LEAST. A B A= 5cm L=35 cm A=9 cm L=42 cm C D A= 7 cm L=24 cm A= 6cm L=28 cm В, А, С, D В, С, D, A D, C, A, B B, A=D, C A=B, D, C
On a guitar, the strings played vibrate between two fixed points. The frequency of vibration is modified by changing the string length using a finger. The different strings have different wave speeds. When a string is plucked, a standing wave forms between the bridge and the finger. bridge- finger 62 cm 1a. Outline how a standing wave is produced on the string.
What do you expect from sound heard when you match the resonance frequency of the drinking glass? Would you expect a change in the amplitude, frequency, or wavelength? What is the resonance frequency measured? Use the ruler to measure the length of the drinking glass.
The graphs below may represent either a picture of the shape of a wave on a string at a particular instant in time, t1, or the transverse (up and down) velocity of the mass points of that string at that time. Depending on what they are, the wave on the string may be: a right going traveling wave a left going traveling wave a part of a standing wave growing in amplitude at time t1 a part of a standing wave shrinking in amplitude at time t1 For each of the following cases, decide what the wave is doing and choose one of the four number (1)-(4) or none (N). Graph A is a graph of the string's shape and graph B is a graph of the string's velocity. ---Select--- 1 2 3 4 N Graph A is a graph of both the string's shape and the string's velocity. ---Select--- 1 2 3 4 N Graph B is a graph of the string's shape and graph A is a graph of the string's velocity. ---Select--- 1 2 3 4 N
A jetskier is moving at 8.3 m/s in the direction in which the waves on a lake are moving. Each time he passes over a crest, he feels a bump. The bumping frequency is 0.95 Hz, and the crests are separated by 5.8 m. What is the wave speed? Note: Answer in 3rd significant digit with unit
A string is stretched so that it is under tension and is tied at both ends so that the endpoints don't move. A mechanical oscillator then vibrates the string so that a standing wave is created. The dark line in each diagram represents a snapshot of a string at an instant in time when the amplitude of the standing wave is a maximum. The lighter lines represent the string at other times during a complete cycle. All of the strings are identical except for their lengths, and all strings have the same tension. The number of nodes and antinodes in each standing wave is different. the lengths of the strings (L) and the amplitudes at the antinodes (A) are given in each figure. Rank the speed of the wave in the strings. Enter in the form A > B = C . Hint: v=(T/μ)0.5.
A wind instrument has a closed end and an open end. Draw the standing wave pattern for the first two harmonics.
A long, taut string is attached to a distant wall (see figure). A demonstrator moves their hand and creates a very small amplitude pulse that reaches the wall in a certain amount of time t0. A small red dot is painted on the string halfway between the demonstrator's hand and the wall. For each part below, select which of the listed actions taken by itself will produce the desired result. More than one answer may be correct, so select all the correct statements. How, if at all, can the demonstrator repeat the original experiment to produce: a. A pulse that takes a longer time to reach the wall?Move their hand more quickly (but still only up and down once by the same amount)Move their hand more slowly (but still only up and down once by the same amount)Move their hand a larger distance (but still only up and down in the same amount of time)Move their hand a smaller distance (but still only up and down in the same amount of time)Use a heavier string of the same length under the same…
The diagram below shows a snapshot of a transverse wave traveling to the right through a medium. Point A represents a particle of the medium. In which direction will particle A move in the next instant? V Right Down Up Left 0000
To further explore what this equation means, consider four sets of identical waves that move in the +x direction. A photo is taken of each wave at time t and is displayed in the figures below. Rank these sets of waves on the basis of the maximum amplitude of the wave that results from the interference of the two waves in each set. Rank from largest amplitude on the left to smallest amplitude on the right. To rank items as equivalent, overlap them. Reset Help Wane Wane Wane 20 Wane 2 Wave Wave O The correct ranking cannot be determined.