10,200 Hz Wavelength

How Long Is a 10200 Hz Wavelength?

A 10200 Hz sound wave has a wavelength of 0.03 meters, 3.36 cm, 0.11 feet (0 feet and 1.32 inches) or 1.32 inches when traveling in air at 20°C (68°F).

The formula for the wavelenght is λ = c/f where:

  • c is the celerity (speed) of sound = 343.21 m/s or 1126.03 ft/s in air at 20°C (68°F).
  • f is the frequency = 10200 Hz
which gives a wavelength λ of 0.03 meters, or 0.11 feet.

10200 Hz Wavelength Depending on Temperature

The speed of sound in air depends on temperature. Here is how the wavelenght of a 10200 Hz sound wave will vary according to temperature:

Temp (°C) Temp (°F) 10200 Hz wavelength (cm)10200 Hz wavelength (in)
-40-403.00081.1814
-35-313.03281.1940
-30-223.06451.2065
-25-133.09581.2188
-20-43.12691.2311
-1553.15761.2431
-10143.18801.2551
-5233.21821.2670
0323.24801.2788
5413.27761.2904
10503.30701.3020
15593.33601.3134
20683.36481.3247
25773.39341.3360
30863.42181.3471
35953.44991.3582
401043.47771.3692

10200 Hz Half Wavelength and Standing Waves

The half wavelength of a 10200 Hz sound wave is 0.02 meters, 1.68 cm, 0.06 feet (0 feet and 0.66 inches) or 0.66 inches when travelling in air at 20°C (68°F).

Modes (or standing waves) will occur at 10200 Hz in rooms where two opposing walls (axial mode), edges (tangential mode) or corners (oblique mode) are spaced by a distance d = nλ/2 where:

  • n is a natural (positive integer greater than or equal to 1)
  • λ is the 10200 Hz wavelength = 0.03 meters, or 0.11 feet in air at 20°C (68°F).

10200 Hz Standing Waves Distances

n Distance (m) Distance (ft)
10.020.06
20.030.11
30.050.17
40.070.22
50.080.28

We typically don't treat rooms for standing waves above 300 Hz.

Given the relatively small 10200 Hz half wavelength, you can treat your room by using thick acoustic foam. This will absorb frequencies as low as 250 Hz, and all the way up to 20,000 Hz.

How To Convert 10200 Hz To ms

A Hz (Hertz) is a cycle (or period) per second.

Because a 10200 Hz wave will ocillate 10200 times per second, we can find the time of a single cycle (or period) with the formula p = 1/f where:

  • f is the frequency of the wave = 10200 Hz

The result will be expressed in seconds, so let's multiply by 1000 to get miliseconds:

1 / 10200 Hz * 1000 = 0.1 ms.