The fundamental frequency of a pipe that is open at both ends is 596 Hz. Use v=344m/s. a) How long is this pipe? b) If one end is now closed, find the wavelength of the new fundamental. If one end is now closed, find the frequency of the new fundamental.

Part A Find the fundamental frequency and the frequency of the first three overtones of a pipe 45.0 cmcm long, if the pipe is open at both ends. Express your answers in hertz separated by commas.   Part B Find the fundamental frequency and the frequency of the first three overtones of a pipe 45.0 cmcm long, if the pipe is closed at one end. Express your answers in hertz separated by commas.   Part C If the pipe is open at both ends, what is the number of the highest harmonic that may be heard by a person who can hear frequencies from 20.0 HzHz to 20.0×103Hz20.0×103Hz?

A guitar with strings of length L = 0.55 m has new strings put on it. The low E string has a linear density of ρ = 0.0062 kg/m and when tuned properly should produce a fundamental tone of ν = 82.41 Hz. L=0.55 m p= 0.0062 kg/m A: What is the proper tension the string should be under, in Newtons?  B: If the string was mistakenly tuned to high E (ν = 330 Hz) what would the tension be, in Newtons?

Pipe A is 2 m long and open at both ends.  Pipe B is open at one end and closed at the other.  Determine the length of pipe B so that it has the same fundamental frequency as A.

Pipe A is 2.6 m long and open at both ends.  Pipe B is open at one end and closed at the other.  Determine the length of pipe B so that it has the same fundamental frequency as A.

QUESTION 5 A transverse wave completes 12 full oscillations in two seconds. The wave moves at 31.2 m/s. Find the distance between two adjacent crests on the wave (in m). QUESTION 6 The linear density of a guitar string is 8.0 x 104 kg/m. A wave on the string has a frequency of 400 Hz and a wavelength of 60 cm. What is the tension in the string? QUESTION 7 The mathematical expression of a wave is given by y = 4.2 m Sin ( 1.2 rad/m x – 9.6 rad/s t). What is the speed of the wave (in m/s)? QUESTION 8 What is the sound intensity (in µW/m2) at 1.86 m from a 4 mW loudspeaker emitting sound uniformly in all directions?

What mathematical relationship exists between the wave speed and and the tension of the medium according to the POWER trendline equation from the graph? Be specific with the answer (i.e., describe the full mathematica proportionality between the two variables) Feel free to use the graph. Table:  Frequency (Hz) Density (kg/m) Tension (N) Speed (cm/s) Wavelength (cm) 0.75 1.0 2.0 141.4 188.53 0.75 1.0 2.5 158.1 210.8 0.75 1.0 3.0 173.2 230.93 0.75 1.0 3.5 187.1 249.47 0.75 1.0 4.0 200 266.67