An organ pipe sounds two successive tones at 228.6 Hz and 274.3 Hz. Determine whether the pipe is open at both ends or open at one end and closed at the other.
a)The pipe is open at both ends.
b)The pipe is open at one end and closed at the other.
* Please explain clearly how you calculated your answer
An organ pipe sounds two successive tones at 228.6 Hz and 274.3 Hz. Determine whether the...
The fundamental of an organ pipe that is closed at one end and open at the other end is 265.6 Hz (middle C). The second harmonic of an organ pipe that is open at both ends has the same frequency. Part A What is the length of the pipe that is closed at one end and open at the other end? PO AJĄ O O ? Submit Request Answer Part B What is the length of the pipe that is...
An engineer measures the frequencies of the audible standing waves in an organ pipe. He finds two adjacent tones at 420 and 540 Hz. (a) On the basis of this discovery, the engineer computes the pipe's fundamental frequency. What is its value (in Hz)? Hz (b) Is the pipe open at both ends or only one? open at both ends open at only one end (c) The air within the pipe has a temperature of 20°C and is at atmospheric...
While exploring an abandoned cathedral, you find an old pipe organ. Only one pipe still works, but most of the pipe's harmonic frequencies are absorbed before you can hear them due to overgrowth and debris. The harmonic frequencies you hear are 138 Hz , 230 Hz , and 322 Hz . a. Is the pipe closed on one end or is it open on both ends? Closed on one end. Open on both ends. This choice is not correct. b....
An organ pipe open at both ends is 1.5 m long. A second organ pipe that is closed at one end and open at the other is 0.75 m long. The speed of sound in the room is 330 m/s. Which of the following sets of frequencies consists of frequencies which can be produced by both pipes? a. 220 Hz, 440 Hz, 660 Hz b. 330 Hz, 550 Hz, 770 Hz c. 220 Hz, 660 Hz, 880 Hz d. 110...
A certain organ pipe, open at both ends, produces a fundamental frequency of 290 Hz in air. If the pipe is filled with helium at the same temperature, what fundamental frequency f_He will it produce? Take the molar mass of air to be 28.8 g/mol and the molar mass of helium to be 4.00 g/mol Express your answer in hertz. Now consider a pipe that is stopped (i.e., closed at one end) but still has a fundamental frequency of 290...
Problem 3: A certain pipe has resonant frequencies of 234 Hz, 390 Hz, and 546 Hz, with no other resonant frequencies between these values. (Hint: The lower frequency is not necessarily the pipe fundamental frequency) (a) Show that the difference of frequency between two adjacent harmonics has the same expression for a pipe open at both ends as for a pipe closed at one end (b) How long is this pipe? (c) Is this a pipe open at both ends...
An air-filled pipe is found to have successive harmonics at 800 Hz , 1120 Hz , and 1440 Hz . It is unknown whether harmonics below 800 Hz and above 1440 Hz exist in the pipe. What is the length of the pipe? L= 53.6 cm open-closed pipe Need help with: Identify the correct displacement graph of the 1120 Hz standing wave in the pipe. Note that the closed end of the pipe is on the right.
Organ pipe A with both ends open has a fundamental frequency of 320.0 Hz. The third harmonic of organ pipe B with one end open has the same frequency as the second harmonic of pipe A. Assume a speed of sound of 343 m/s. What is the length of Pipe A? What is the length of Pipe B?
4. An organ pipe open at both ends has the second harmonic of 512 Hz. What would the frequency of its third harmonic be if you close one end of the pipe? a) 1150 Hz b) 384 Hz c) 1410 Hz d) 896 Hz e) 640 Hz
18, + 03 points i Frenous Answars The shortest pipein a particular organ is 1.41 m (a) Determine the frequency (in Hz) of the ninth harmonic (at 0°C) if the pipe is closed at one end. 548.93 Racall that the pipe is closed at ane end. When standing wave rasonance occurs in a pipe closed at one and, the length of the pipe is an odd integral number of quarter wavelengths. Can you express the wavelength of the traveling wava...