Sound travels faster in humid air than in dry air. This is primarily because:

A car moving with a velocity of $36{\mkern 1mu} \,\,{\mkern 1mu} k{m^{ - 1}}$ crosses a siren of frequency $500\,\,Hz$. The apparent frequency of siren after passing it will be

At the temperature (in ${0^0}C$) will the speed of sound in air be 3 times it’s value at ${0^0}C$

Velocity of sound in air is

The velocity of sound in air is $330\,\,{\rm{m}}{{\rm{s}}^{ - 1}}$) and the velocity of light in air is $3 imes {10^8}{\rm{m}}{{\rm{s}}^{ - 1}}$. What frequency, in $Hz$ does a BBC station which transmits at $1500\,\,m$ broadcast?

The velocity of sound in a gas is given by $v = \sqrt{\gamma P/\rho}$, where $P$ is pressure, $\rho$ is density, and $\gamma$ is a constant. If the pressure is doubled while keeping the temperature constant, what happens to the velocity?

A pipe 20 cm long is closed at one end. Which harmonic mode of the pipe is resonantly excited by a source of 1237.5 Hz. (sound velocity in air $= 330\,\,{\rm{m}}{{\rm{s}}^{ - 1}}$)

The minimum audible wavelength at room temperature is about

Oxygen is $16$ times heavier than hydrogen. Equal volumes of hydrogen and oxygen are mixed. The ratio of speed of sound in the mixture to that in hydrogen is

A transverse wave is represented by the equation $y = {y_0}\,\,\sin \frac{{2\pi }}{\lambda }\left( {vt - x} \right)$ For what value of $\lambda$, the maximum particle velocity equal to two times the wave velocity

Standing waves are produced by the superposition of two waves ${y_1} = 0.05\,\,\,\sin \left( {3\pi t + 2x} \right)$

${y_2} = 0.05\,\,\sin \left( {3\pi t + 2x} \right)$ Where $x$ and $y$ are in meters and $t$ is in second. What is the amplitude of the particle at $x = 0.5$ ? Given $\cos \,\,{57.3^0} = 0.54$.