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A test you take with your own ears

The name that finds you

You are in a crowded room. Everyone talking at once — and through the noise, a name, from across the room. Put on headphones, follow one voice and ignore the other, and find out whether you would catch it. Sixty seconds, rebuilt from the original studies of attention.

The sound starts as you scroll. The test needs headphones: one voice per ear. Phone speakers mix everything together.

The room

Around you, the room. Everyone talking at once — researchers call many voices mixed together babble, and this one is made of real recorded voices.

In 1953, the engineer Colin Cherry gave this situation its scientific name: the cocktail party problem. He played one recording into each ear of his listeners and asked them to repeat one voice word for word — to shadow it — while rejecting the other.

Asked afterward what had played in the rejected ear, his listeners could say almost nothing: that sounds had occurred. When he switched the rejected ear from English to German mid-speech, they did not notice at all. When he swapped a man's voice for a woman's, they nearly always did.

Two of the room's voices, separated: the woman on your right, the man on your left. In a moment, you will follow her and ignore him — exactly Cherry's task.

The test

Here is the task Moray set in 1959, rebuilt for this page. A passage plays in your right ear and a stream of words in your left. Follow the passage — repeat it quietly under your breath if you like — and ignore the left voice completely.

Somewhere in the left voice, a name is hiding.

Shadow one voice

Press start. A passage plays in your right ear, a stream of words in your left. Follow the passage and ignore the left voice. It lasts about a minute.

Without headphones both voices reach both ears, so this becomes an illustration rather than the test. The findings below still stand.

Whatever you answered: the name was there, at the same loudness as the words around it. Replay the left voice alone above, and you will hear what your filter threw away.

One in three

That name was almost certainly not yours. In the real studies, the hidden name was the listener's own — and still, most listeners missed it.

Moray's first try: 4 of 12 noticed. The first direct replication, Wood and Cowan in 1995: 34.6% of 34 listeners. The preregistered replication, Röer and Cowan in 2021: 23 of 80. The honest sentence is: about one listener in three catches their own name in the standard shadowing task. In easier versions the share rises toward half; the chart shows both.

Listeners who caught their own name in the voice they ignoredAbout one in three in the standard task: 33% of 12, 35% of 34, 29% of 80. About half in easier versions, 58% of young versus 3% of older adults.0%25%50%75%100%Moray 195933% · n=12Wood & Cowan 199535% · n=34Röer & Cowan 202129% · n=80Harvey & Beaman 202152% · n=81Young adults 201458% · 29/50Older adults 20143% · 1/29
Listeners who reported their own name in the voice they were told to ignore. Moray's paper is closed-access; the figure comes via three later studies.

And the name breaks through while almost nothing else does. Control names belonging to other listeners: none of 40 noticed in one study, 2 of 80 in another. Unexpected words planted in sentences: 1 of 80 — effectively zero. Whole phrases in the ignored voice left no detectable memory in direct or indirect tests.

There is one group whose filter is nearly perfect. In 2014, Naveh-Benjamin and colleagues found that only 1 of 29 older adults noticed their own name; even when the words came 25% slower, almost all of them still missed it. If your grandmother seems not to hear you across a noisy room, her filter — or her ears — may be working better than yours.

What the electrodes found

Here is the twist. In Röer and Cowan's study, the listeners' shadowing mistakes spiked at the name and the two words after it — and the mistakes picked up differences the later questionnaire missed. The voice stumbled where the memory stayed silent: attention had been caught for a moment, then let go before it became something the listener could report.

Electrodes tell the same story from the other side. In 1999, Perrin and colleagues played ten adults their own names among other first names: the brain's P3 wave answered to the own name even in passive listening — and it persisted into stage II sleep and into REM sleep, where it appeared exclusively to own names. An observed response, not proof anyone consciously heard.

And in 2008, Fischer, Dailler and Morlet played the patient's own name to 50 deeply comatose people. In 21, the brain answered with a P3 wave; 12 showed its late component, and all but one of those 12 woke within three months. But three in ten of those who woke had shown no such wave at all. It is a prognostic association — most with the response woke — not a guarantee, and never a verdict on anyone.

One debate, in one sentence each. Conway's team found that among pre-selected extremes, 20 listeners per group, weaker working memory caught their name far more often, 65% against 20% — but later studies found that link weaker or absent, possibly visible only when names are rarely noticed. And one sleep study found unfamiliar voices driving the sleeping brain's responses more than name identity — so the name's power in sleep is contested, not settled.

Who says it

Your name may be the sound you have heard most often in your life, and you have almost never said it to yourself. It arrives from outside: the voice that called you home when the streetlights came on. The voice that says it now, in a particular way no one else quite manages.

Somewhere tonight, someone will say a name to a person who shows no sign of hearing — in a hospital room, the way the researchers played names to their patients. Read the coma results with care: a response means the brain distinguished the name. No response means nothing at all.

Hear your own name where the test name was

Type your first name. Your device speaks it into the left voice, at the test name's place.

This is your device's voice, not a recorded one — and a new voice reading one name is easier to spot than the same voice continuing, so this part is easier than the test, by design. The page never sends or stores what you type; it only hands it to your device's voice, which itself may be a network voice.

Say their name

You have spent this page inside the filter: one voice kept, one thrown away, a name slipping through the crack.

Someone you love has a name only you say in exactly your way. Say it to them today — across a room, if you can. And if they seem not to hear, say it again: they may have caught it without knowing.

Sources and method

The test on this page follows the original design: one voice per ear over headphones, an attended story on the right and an ignored stream on the left, with a name embedded in the ignored stream at the same loudness as the words around it — in the original studies the name replaced a word at the same level. What it is not: the name here is not your own, and the voices are recordings, so this is a demonstration of the shadowing task, not the experiment and not a hearing or attention test.

No published study gives a loudness threshold for detecting one's own name in noise, so the test level is an illustrative choice, anchored to sentence intelligibility: normal-hearing listeners reach 50% of sentences near −3 dB signal-to-noise in steady noise (Nilsson and colleagues, 1994) and understand sentences comfortably at 0 dB in four-talker babble (Killion and colleagues, 2004). The name plays at the same level as the ignored voice.

The voices are real recordings, cut at word boundaries with short fades and played at equal loudness — measured per file at build, with the room set 14 dB below by choice. Speakers were confirmed from catalogue credits and the credits spoken in the recordings; transcripts were machine-made and checked by reading. The hidden name is spoken by a different voice than the ignored stream; in the original studies it was the same voice, so if anything this demonstration makes the name easier to spot than the experiment did.

Moray's 1959 paper is closed-access with no abstract on record; the 4-of-12 figure is reported identically in three later primary studies, which is the basis used here. Wood and Cowan report 34.6% of 34 listeners; the percentage is not a whole fraction of 34, so the abstract leaves the exact denominator unstated. Cherry (1953), Conway and colleagues (2001), Röer and Cowan (2021), Naveh-Benjamin and colleagues (2014) and Harvey and Beaman (2021) were read in full; the rest in their published abstracts. Brain responses are observed electrical differences, not proof anyone consciously heard; absence of a response never means cannot hear. The coma finding is a prognostic association: most patients with the response woke; among those without it, many still woke.