Part 2) An organ pipe of length L = 4.6 m is open at both ends. It is driven to oscillate with a standing wave that has two nodes within the pipe. (a) What is the wavelength of the standing wave? (b) If the speed of sound in air is 330m/s, what is the frequency that the organ pipe is oscillating at in this mode? Hz

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Chapter1: Units, Trigonometry. And Vectors
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Problem 1CQ: Estimate the order of magnitude of the length, in meters, of each of the following; (a) a mouse, (b)...
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Part 2)
An organ pipe of length L = 4.6 m is open at both ends. It is driven to oscillate with a standing wave that has two nodes within the pipe.
(a) What is the wavelength of the standing wave?
m
(b) If the speed of sound in air is 330m/s, what is the frequency that the organ pipe is oscillating at in this mode?
Hz
Transcribed Image Text:Part 2) An organ pipe of length L = 4.6 m is open at both ends. It is driven to oscillate with a standing wave that has two nodes within the pipe. (a) What is the wavelength of the standing wave? m (b) If the speed of sound in air is 330m/s, what is the frequency that the organ pipe is oscillating at in this mode? Hz
(a) A simple pendulum of length e = 2.50 m and mass m = 16.6 kg is swinging in simple harmonic motion. Calculate the period of this
ocillation.
T =
(b) The pendulum is stopped and the massless string of the pendulum is replaced with a spring of the same length. The mass is set
oscillating on this spring and that oscillation is observed to have a frequency of f = 0.747 Hz. What is the spring constant of the spring?
k =
N/m
Transcribed Image Text:(a) A simple pendulum of length e = 2.50 m and mass m = 16.6 kg is swinging in simple harmonic motion. Calculate the period of this ocillation. T = (b) The pendulum is stopped and the massless string of the pendulum is replaced with a spring of the same length. The mass is set oscillating on this spring and that oscillation is observed to have a frequency of f = 0.747 Hz. What is the spring constant of the spring? k = N/m
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