The velocity of sound in air at room temperature is `350 m/s`.Find the frequency of second overtone of air column of length 70 cm when it is
closed at one end.

The velocity of sound in air at room temperature is 350 m/s .Find the frequency of second overtone of air column of length 70 cm when it is open at both ends.

Velocity of sound in air at room temperature is 340 m/s . An air column is 34 cm long. Find the frequency of the 5th overtone, if it is closed at one end

Velocity of sound in air at room temperature is 333 m//s . An air column is 33.3 cm. long. Find the frequency of its fifth overtone if it is closed at on end

Velocity of sound in air at room temperature is 340 m/s . An air column is 34 cm long. Find the frequency of the 5th overtone, if it is open at both ends.

Velocity of sound in air is 333 m/s .Length of air column in pipe is 33.3 cm . Calculate the frequency of the 5th overtone , if the pipe is closed at one end.

If the velocity of sound in air is 350 m/s . Then the fundamental frequency of an open organ pipe of length 50 cm, will be

Velocity of sound in air is 333 m/s .Length of air column in pipe is 33.3 cm . Calculate the frequency of the 5th overtone , if the pipe is open at both the ends.

The speed of the sound in air at 0 ^@C is 332m//s . Find the speed of sound in air at 10^@C .

Speed of sound is air is 340 m/s. The length of air column is 34 cm. The frequency of 5^(th) overtone of pipe closed at one end is

A vibrating string of certain length l under a tension T resonates with a mode corresponding to the first overtone (third harmonic) of an air column of length 75cm inside a tube closed at one end. The string also generates 4 beats per second when excited along with a tuning fork of frequency n . Now when the tension of the string is slightly increased the number of beats reduces 2 per second. Assuming the velocity of sound in air to be 340 m//s , the frequency n of the tuning fork in Hz is