I am at a loss of what to do here
I am at a loss of what to do here Practice Questions and Problem (Exam 2)...
The third harmonic of a guitar string produces a note with a frequency of 330 Hz from a string with a linear mass density of 4.47*10-3 kg/m. The length of the guitar string is 0.65 meters. Draw a picture of the standing wave described above. Label the nodes and antinodes. Determine the wavelength of the standing wave that produces this note. What is the length of the guitar string (just the part that’s vibrating)? What is the tension in the...
For the first four resonant modes of a stretched string 100 CM long A. Draw the standing wave for each, and label the nodes N and the antinodes A. B. Label each mode by its harmonic number and its frequency relative to the fundamental frequency f1 of the string.
Im looking for help on number 2! Thanks 1.0 Use X 2L/m and fo v/Am m (2) to solve these problems. For strings, the relationship fm 2V is also true. mn 2L 0.5! (w) 0.0 WWW -0.51 1. What is (a) the wavelength and (2) the mode of the standing wave in the figure of a vibrating string below? -1.01 -1.5 2 3 4 5 < (m) (w) 3. A string has a linear density of u 2.0 x 10-3...
A 32 cm long violin string is pulled tight with a force of 40 N. The string has a mass of 5 x 10-4 kg/m. (A) How fast do waves travel along this string? (B) If the frequency of a certain standing wave (which is NOT the fundamental) on this string is 1320 Hz, what is its wavelength? (C) If this wave in part B is a standing wave on the violin string, draw the pattern of nodes and antinodes.
Can you help me to do the calculation and graph for two tables? thank you mass = 100g ANALYSIS AND QUESTIONS: 1. Plot a graph of the wavelength versus the inverse of the frequency, 11f. Draw a "best-fit" straight line and determine the slope. 2. Determine the tension of the string from knowledge of the slope. 3. Compute the velocity v of the wave in the string using Eqn. (2). 4. As the frequency is increased, what happens to the...
A violin string of length 43 cm and mass 1.1 g has a frequency of 495 Hz when it is vibrating in its fundamental mode. (a) What is the wavelength of the standing wave on the string? cm (b) What is the tension in the string? N (c) Where should you place your finger to increase the frequency to 645 Hz? cm from the fixed end of the string (from the peg of the violin)
A violin string of length 44 cm and mass 1.1 g has a frequency of 534 Hz when it is vibrating in its fundamental mode. (a) What is the wavelength of the standing wave on the string? _______ cm (b) What is the tension in the string? _______N (c) Where should you place your finger to increase the frequency to 684 Hz? __________ cm from the fixed end of the string (from the peg of the violin)
4. A wire with mass density 1.00 g/m and length 1.80 m is stretched between two (fixed) clamps. It is vibrated at its third harmonic with a frequency of 240 Hz. a) Draw the standing wave pattern, labeling nodes and antinodes. b) What is the tension in the string? c) What is the fundamental frequency?
A violin string of length 38 cm and mass 1.3 g has a frequency of 457 Hz when it is vibrating in its fundamental mode. (a) What is the wavelength of the standing wave on the string? cm (b) What is the tension in the string? N (c) here should you place your finger to increase the frequency to 607 Hz? cm from the fixed end of the string (from the peg of the violin) eBook
I am completing a study guide, and was able to complete the first 2 pages. Any help on these questions? You are driving south on a road at a speed of 21.3 m/s and you hear a siren from a police car at a frequency of 915 Hz, as the police car approaches you while driving north. If the police car is going at a speed of 32.4 m/s, and the speed of sound is 343 m/s, what frequency would...