Standing Waves in Pipes

Using a diagram tell the number of overtones present in standing wave of second harmonics in organ pipe with both closed ends .

Using a diagram tell how many overtones and order of harmonics present in standing wave of fundamental frequency in closed ends organ pipe.

Illustrate the standing wave of first harmonics in close ends organ pipe.

Draw a diagram of standing wave formed inside the organ pipe with both ends closed for first harmonic.

Illustrate normal modes of oscillation in an organ pipe with both ends closed.

Write a short note on organ pipe with both ends closed.

Describe the application of kundt's tube.

Find speed of sound in air by using kundt's tube.

Describe the importance of organ pipe

A closed organ pipe of length $\mathrm{L}$ and an open organ pipe contain gases of densities${\mathrm{\rho }}_1 \mathrm{and} {\mathrm{\rho }}_2$ respectively. The compressibility of gases is same in both the pipes which are vibrating in their first overtone with same frequency. The length of the open organ pipe is:

In the fundamental mode, time taken by the wave to reach the closed end of the air-filled pipe is $0.01 \mathrm{s}$. The fundamental frequency is

In a resonance tube, closed at one end by a smooth moving piston and the other end open, exhibits the first three resonance lengths of air column, at $L_1, L_2$ and $L_3$ for the same tuning fork. Then, they are related by

A closed organ pipe and an open organ pipe of the same length produce $2$ beats, when they are set into vibrations simultaneously in their fundamental mode. The length of the open organ pipe is now halved and of closed organ pipe is doubled. The number of beats produced will be,

Tube $A$ has both ends open while tube $B$ has one end closed. Otherwise, they are identical. Their fundamental frequencies are in the ratio

Find the frequency of fifth overtone of an air column vibrating in a pipe closed at one end. Length of pipe is $42.10 \mathrm{cm}$ and speed of sound in air at room temperature is $350 \mathrm{m}/\mathrm{s}$. (Inner diameter of pipe is $3.5 \mathrm{cm}$)