Hearing Test

From YouTube poster:

Set your volume to regular settings, as if you were watching any YouTube movie. Watch "Hearing Test" and listen very carefully using headphones. The video displays audio frequencies that are being played. You can determine what you can or what you cannot hear. Typically, depending on age, audible frequencies will be between 20-30 Hertz on the low side of the audio spectrum, and 10-16 kiloHertz on the high side of the audio spectrum. There are individuals, however, who can can hear the whole spectrum between 16 Hz (Hertz) and 20 kHz (kiloHertz). Because of the encoding used during the audio preparation, tests above 18 kHz are not very reliable.
Please make sure that you do not increase the volume just to see if you can hear anything!
spoco2says...

OK, I'm kinda amazed that wasn't some shock vid.

Just before 30Hz->14KHz here.

Of course, do note there'll be differences based on people's speakers etc. Some speakers/headphones can't reproduces certain frequencies, so this is as much a test of them as of your ears.

Majortomyorkesays...

20Hz to 14kHz. Although, at least for me, the audio appears to completely cut out at approximately 10.8kHz to 11.3kHz, then continues to around 14kHz where it abruptly drops out from then on. Tested on Sennheiser HD650's with a frequency response of 10Hz - 39kHz.

gwiz665says...

There are some definite volume things with my speakers.. at certain frequencies the damn near blow my ears off and others are very silent. My speakers only start making a sound at 30 something hz, but the floor is shaking from it.

I had the same range as the above posters with the same dropout at 10k.

treatsays...

200hz to 10khz, i didn't use headphones though, just my asus eee onboard speakers. I'm not surprised, honestly. Years of playing loud music and running chainsaws without earplugs, i pretty much asked for it.

sillmasays...

I'm pretty sure the high ends don't work well, if at all in this test. The sounds seem to break around 14k, I can hear slight beebs at every k after that, but I'm sure that they're not nearly as high frequency as they should be, and the sound isn't continuous at all, just very short beeps on each k.

dystopianfuturetodaysays...

30 Hz - 14 kHg

I find this test both existential and frighting.

Does anyone NOT lose sound for a moment between 10 and 11?

I don't think volume makes any difference here. If you can't hear a particular frequency, you shouldn't be able to hear at any volume. Volume doesn't change anything for me, except for a bit of speaker rattle in the low end.

I need to test my cats now.

dystopianfuturetodaysays...

Try playing two or more of these at different time intervals. Put a few close together and notice the interesting pulsing in the low register. Try to tune them to intervals if you have aural skills. Open a whole shit load and drop some acid. This is a fascinating tool.

blankfistsays...

>> ^Majortomyorke:
20Hz to 14kHz. Although, at least for me, the audio appears to completely cut out at approximately 10.8kHz to 11.3kHz, then continues to around 14kHz where it abruptly drops out from then on. Tested on Sennheiser HD650's with a frequency response of 10Hz - 39kHz.


I just tested mine using a crappy pair of Sony earbuds, and I got the same response as Majortomyorke. This makes me a bit suspect of the test. At 20Hz it's pretty much an ear shaking bass, and I don't think there isn't a way anyone couldn't hear it or at least feel it if you had earbuds in with the volume turned up. Plus, the audio was going in and out in the higher freqs.

dystopianfuturetodaysays...

Sound is pulsing vibrations per second, and you can very clearly hear this by opening this vid in two windows and delaying the 2nd vid by a second. The two pitches will clash resulting in a pulsing overtone. The overtone should be high enough for you to be able to hear much earlier than you hear the fundamental, and will pulse from 1 vibration per second up to thousands per second. (If you have a tuning fork at home, it likely says A=440 which means 440 vibrations per second, which is an A in the western tuning system)

This would be a nice way to teach the physics of sound. *science

bamdrewsays...

I've taken my upper-end at work before, in a sound proof room, and could follow with good detection accuracy up to 17.4 kHz (labmates typically maxed around 16.8... I win).

The lower end is highly dependent on the speaker, and tactile detection of vibration at very low frequencies can be confused for hearing. The upper end is also speaker and background dependent. If anything I thought this ramp test might show people where they have 'notches' in hearing: frequency ranges where they have hearing damage in one or both ears. BUT, with this poorly compressed recording on my cheap Monsoon pc speakers there were all sorts of fades and rises in amplitude.

I wouldn't use this to test hearing, or even test speakers, but it was fun rumbling around on the low end.

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