That depends on its speed, and therefore on the medium it happens to be in.
-- In normal air at sea level, 30 Hz corresponds to a wavelength of about 37.5 feet.
-- In copper, 30 Hz corresponds to a wavelength of about 506 feet.
-- In diamond, 30 Hz corresponds to a wavelength of about 1,315 feet.
-- In water, 30 Hz corresponds to a wavelength of about 160 feet.
The frequency of a sound wave can be calculated using the formula: frequency = velocity / wavelength. Plugging in the values given, we get frequency = 341 m/s / 0.8 m = 426.25 Hz. Therefore, the frequency of the sound wave is 426.25 Hertz.
The frequency of a sound wave can be calculated using the formula: frequency = speed of sound / wavelength. Plugging in the values given, the frequency would be approximately 500 Hz.
The wavelength of a 40 Hz wave can be calculated using the formula: wavelength = speed of sound / frequency. For example, for sound traveling at 343 m/s (speed of sound in air at room temperature) a 40 Hz wave would have a wavelength of approximately 8.6 meters.
The velocity of a wave is calculated using the formula: velocity = frequency × wavelength. Therefore, the velocity of a wave with a frequency of 6 hertz and a wavelength of 2 meters is 12 m/s.
Answer: frequency = 272 Hz. Given the wave velocity (speed of sound) and wavelength, find the frequency of the wave. Velocity = 340.0 m/s, Wavelength = 1.25 m. Formulas: Velocity = wavelength * frequency. Frequency = velocity / wavelength. Calculation: Frequency = (340.0 m/s) / (1.25 m) = 272 Hz. (Where Hertz = cycles / second.)
The frequency of a sound wave can be calculated using the formula: frequency = velocity / wavelength. Plugging in the values given, we get frequency = 341 m/s / 0.8 m = 426.25 Hz. Therefore, the frequency of the sound wave is 426.25 Hertz.
The frequency of a sound wave can be calculated using the formula: frequency = speed of sound / wavelength. Plugging in the values given, the frequency would be approximately 500 Hz.
The wavelength of a 40 Hz wave can be calculated using the formula: wavelength = speed of sound / frequency. For example, for sound traveling at 343 m/s (speed of sound in air at room temperature) a 40 Hz wave would have a wavelength of approximately 8.6 meters.
The velocity of a wave is calculated using the formula: velocity = frequency × wavelength. Therefore, the velocity of a wave with a frequency of 6 hertz and a wavelength of 2 meters is 12 m/s.
Answer: frequency = 272 Hz. Given the wave velocity (speed of sound) and wavelength, find the frequency of the wave. Velocity = 340.0 m/s, Wavelength = 1.25 m. Formulas: Velocity = wavelength * frequency. Frequency = velocity / wavelength. Calculation: Frequency = (340.0 m/s) / (1.25 m) = 272 Hz. (Where Hertz = cycles / second.)
frequency of wave is inversely proportional to wavelength
frequency of wave is inversely proportional to wavelength
You get a speed. If the 'Hertz' is the frequency of a particular wave, and the 'meters' is the wavelength of the same wave, then their product is the speed of that wave.
The wavelength of a wave with a frequency of 1 hertz is 1 meter. Wavelength is the distance between two consecutive peaks or troughs of a wave, and it is inversely proportional to the frequency of the wave.
To find the wavelength, the following formula applies: λ = ν / f That in common words is: Wavelength = Wave's Speed / Wave's Frequency So, Wavelength of sound wave = Speed of sound wave / Frequency of sound wave Now, Speed of sound wave is 343 m/s, so Wavelength of sound wave = 343 m/s / Frequency of sound wave Frequency of sound waves audible to a human ear range between 20 Hz to 20 kHz. So filling the desired sound frequency in the equation above you get the desired wavelength of that sound wave.
Kind of. The pitch of a sound wave is its frequency, and because frequency = 1 / wavelength its pitch is related to the wave length. So to answer, no, the pitch of sound is not the wavelength itself, rather it is the inverse of the wavelength ( 1/wavelength)falseACJM
The wavelength of a sound wave is inversely proportional to its frequency, meaning higher frequency sound waves have shorter wavelengths. The speed of sound in air is constant at around 343 meters per second, regardless of the frequency of the sound wave. This means that as the frequency of a sound wave increases, its wavelength decreases, but the speed of sound in air remains the same.