If the wavelength of the fourth harmonic of a standing wave on a string is 7.2 cm, what is the length of the string?
apply V = Lf
f = 330/0.072
f = 4583.33 Hz
apply f = nV/2L
L = 4* 330/4583.33*2)
L = 14.4 cm
If the wavelength of the fourth harmonic of a standing wave on a string is 7.2...
Adjacent antinodes of a standing wave of a string are 20.0 cm apart. A particle at an antinode oscillates in simple harmonic motion with amplitude 0.600 cm and period 0.100 s. The string lies along the +x-axis and its left end is fixed at x = 0. The string is 70.0 cm long. At time t = 0, the first antinode is at maximum positive displacement. a. Is the right end of the string fixed or free? Explain. b. Sketch...
A guitar string oscillating in its 1^st harmonic standing wave makes a 400 Hz tone. The tension in the string is changed so that the 1^st harmonic frequency becomes 500 Hz? By what factor was the tension in the string changed? 0.80 0.92 1.0 1.32 1.56 By what factor does the wavelength of waves on the string change? 0.80 0.92 1.0 1.32 1.56 By what factor does the wavelength of sound waves that you hear change? 0.80 0.92 1.0 1.32...
Name: - Harmonics Worksheet Wave on a String One end of a string with a linear mass density of 1.45 . 10-2 kg/m is tied to a mechanical vibrator that can oscillate up and down. The other end hangs over a pulley 80 cm away. The mass hanging from the free end is 3 kg. The left end is oscillated up and down, which will create a standing wave pattern at certain frequencies. Draw the first five standing wave patterns...
A taut string is under a tension of 40.0 N and a standing wave is generated on it whose oscillation amplitude 5.0 cm with a frequency of 60 Hz. The liner mass density of the wire is 5.00 g. a) What is the velocity of propagation of the wave on the string? b) we observe the third harmonic, what is the length of the string? Draw the figure. c) What is angular fluency and wave number?
What order of harmonics is this standing wave? The first harmonic. The second harmonic. The third harmonic. The fourth harmonic.
a 2.0 m length of string with a mass density of 2.95 x 10^-4 kg/m is fixed at both ends and driven at 120 Hz. The tension is varied to obtain standing waves (resonance) on the string. 1. what is the longest wavelength for a standing wave possible on the string? 2. the tension on the string is varies to obtain fourth harmonic a. what is the wavelength of this standing wave? b. what is the wave speed 3. what...
Consider the 4th harmonic (standing wave with n = 4) on a string of length L with fixed ends, mass density μ and tension T .a) On a standing wave, the nodes are the points that are not moving, and the antinodes the ones that move with the biggest amplitude. How many nodes and antinodes are on the 4th harmonic? Count them and make a graph of the function clearly showing where all the nodes and antinodes are located. b)...
The 3rd harmonics (n=3) standing wave on an oscillating string that is fixed on both ends has a 15 cm wavelength. Find the length of the string in cm.
You have a string with a mass of 12.9 g. You stretch the string with a force of 9.19 N, giving it a length of 1.95 m. Then you vibrate the string transversely at precisely the frequency that corresponds to its fourth normal mode, that is, at its fourth harmonic. What is the wavelength of the standing wave you create in the string? What is the frequency? Wavelength? (m) Frequency? (Hz)
The standing wave is formed in a string with two fixed ends. The mass of the string is 20.0 g and a length of 8.0 m. The tension in the string is 40.0 N. Determine the positions of the nodes and antinodes for the third harmonic. nodes: antinodes: What is the vibration frequency for this harmonic?