Sound Lab
Measure a sound the way we measure ours. Pick one of our recordings, upload a file, or record a tone — the analysis runs entirely in your browser and reads the same numbers we publish about our own instruments: the fundamental, the overtone fingerprint, how long the tone truly rings, and whether it lands on any known frequency.
Try one of ours
Energy chimes +
Wind chime +
Crystal pyramids +
Singing bowl +
Upload a sound
mp3, m4a or wav — nothing leaves your device.
Record a tone
Quiet room, phone close to the instrument, then let the tone ring out completely — recording stops on its own when the tone has faded (up to 3 minutes).
Fundamental
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measurement uncertainty
What does this mean?
The fundamental is the slowest, usually strongest vibration in a sound — the pitch you would sing back. We give it in hertz (cycles per second) and as the nearest note in three reference tunings: modern concert pitch (A = 440 Hz), the 432 tuning most of our chimes use, and the physicists’ “scientific pitch” (C = 256 Hz). Cents are hundredths of a semitone — trained ears start hearing a difference around 5–10 cents. The ± value is our measurement uncertainty: the shorter and noisier a recording, the less precisely any analyzer can pin a pitch down — so we show that limit instead of hiding it.
Known frequency
With this many reference grids, some tone will always land near something. A close match is a fact about numbers — not a promise about effects.
What does this mean?
We compare your tone against four grids: the 440 and 432 note grids; Hans Cousto’s “cosmic octave” tones — orbital periods inverted to frequencies, then doubled octave by octave into hearing range (the arithmetic is real; the meaning people attach to it is a matter of belief); scientific pitch, a physics convention proposed by Joseph Sauveur in 1713, with C at powers of two; and the modern Solfeggio set — a 1990s numerological reading of a medieval hymn, not a historical scale. Octave-shifted matches are marked as such.
Overtones
One clean mode dominates — the signature of a singing bowl, a tube, or a very pure rod. Ratios near 1 : 1.95 : 2.56 — the measured signature of our Cheops-proportion pyramid frames. Whole-number ratios (1×, 2×, 3×…) — the harmonic ladder of a string or an air column, or of several instruments tuned in pure intervals sounding as one. Ratios near 2.76× and 5.40× — the textbook fingerprint of a struck rod. An overtone pattern of its own — neither a harmonic ladder nor any shape we know from our workshop.
| Frequency | Ratio | Note (440) | Level |
|---|
What does this mean?
Almost no instrument makes a single frequency. Strings and air columns stack overtones at neat whole-number multiples — that is what “harmonic” means. Struck rods, bells, bowls and our pyramids follow other laws: their overtone ratios are a fingerprint of their shape. An exact 2.000× double with a suspiciously short ring can be playback distortion rather than a real overtone — when we see that, we flag it instead of celebrating it.
Decay & Q
What does this mean?
T60 is the time a tone needs to fade by 60 decibels — roughly “how long it audibly rings”. Q is the physicist’s version: how many swings the material manages before friction eats the energy. A guitar string lives around a Q of a few hundred; our crystal glass rods and pyramids measure in the tens of thousands — which is why a single strike carries for a minute or more. When a recording stops before the tone does, we extrapolate from the decay we can see and say so with a “≥”.
Beating
What does this mean?
A slow pulse — wah… wah… wah… — means two almost-identical frequencies are taking turns. In a struck rod these are usually its two bending planes, a hair apart by geometry; the pulse rate equals their difference. It is not a flaw. It is physics you can hear.
Recording quality
- Duration
- Sample rate
- Signal above background
- Clipping
What does this mean?
Numbers are only as honest as the recording behind them. Compressed formats (mp3, m4a) and phone processing (auto-gain, noise suppression) flatten a tone’s natural decay, which biases ring-time and Q. For serious decay numbers: record raw, in a quiet room, and let the tone ring out completely.
Everything runs on your device. Your audio is never uploaded.
What is cymatics?
Cymatics is the practice of making sound visible. When a plate vibrates at one of its natural frequencies, fine sand on its surface is thrown away from the moving regions and gathers along the quiet lines — the nodes. The result is a pattern that belongs to that exact tone. Change the pitch, and the pattern reorganises itself into a new figure.
Who was Chladni?
Ernst Chladni (1756–1827), a German physicist and musician, drew a violin bow across the edge of sand-covered metal plates and published the first systematic catalogue of these figures in 1787. They have been called “Chladni figures” ever since, and they helped found the science of acoustics.
How honest is this simulation?
What you see here is a physically-based simulation: we detect the strongest frequencies in your sound, select the matching vibration modes of an ideal plate, and let thousands of simulated grains seek the nodal lines — the same mechanism as on a real plate. A real instrument, with its own geometry and material, produces its own, slightly different figures. Glass is our family's craft, and the instruments in these presets were tuned by hand in our workshop; we prefer telling you that difference over pretending it away.
Try it with a real crystal instrument
The presets above are unedited recordings of instruments from our workshop — pure crystal glass energy chimes and sound pyramids. If you own a singing bowl or chime, switch to the microphone and let the tool show you its frequency, its nearest note, and its pattern.
FAQ
Does the tool upload my audio or voice?+
No. Everything runs inside your browser. Your microphone signal and your files never leave your device.
Can I use the exported video on Instagram or TikTok?+
Yes — on most devices the export is a vertical 1080×1920 MP4 with sound, made for Reels, TikTok and Shorts. Please only export audio you have the rights to use.
Why does my singing bowl show a different pattern than a video I saw?+
Every plate and bowl has its own geometry, so its modes — and their patterns — differ. The simulation shows the figures of an ideal flat plate at your sound’s strongest frequency.
What frequency is the OM preset?+
The chime you hear rings at roughly 1088 Hz — a hand-tuned octave of Hans Cousto’s calculated year tone, 136.10 Hz. We explain the full calculation and its history in our journal.