Is It Rare to Be Able to Move Your Ears?

Moving your ears on command is uncommon but not extraordinarily rare. Depending on which survey you look at, somewhere between about 10 and 20 percent of people can produce a visible voluntary ear wiggle, with men consistently more likely to do it than women. That range is wide enough to make the honest answer a bit slippery, and the reasons it varies so much across studies tell you something interesting about what ear-wiggling actually is and why humans still have the muscles for it at all.

What the Surveys Actually Found

Only a handful of researchers have formally tested how many people can move their ears, and their results are surprisingly inconsistent. One survey of 442 university students found that just 6 percent could move either ear. A separate, earlier study of 174 people put the number far higher: 54 percent of men and 22 percent of women. A third study landed between those extremes, finding that roughly 20 percent of men and 10 percent of women could do it.¹ Another study looking specifically at symmetry found that about 22 percent of people could move one ear, while around 18 percent could move both ears at the same time.²

Why the huge spread? Mostly it comes down to what counts as “moving your ears.” Some studies accepted any perceptible twitch or shift. Others required an obvious, visible wiggle. Self-reported ability tends to run higher than researcher-observed ability, because people may feel a muscle contraction they can’t actually see in a mirror. The population tested matters too: a room full of curious volunteers who signed up for a study on unusual motor abilities will include more ear-wigglers than a random sample. Taking the studies together, the best rough estimate is that somewhere around one in five to one in ten people can produce a noticeable voluntary ear movement, making it a minority skill but hardly a one-in-a-million party trick.

The Muscles You Didn’t Know You Had

Your outer ear is surrounded by a surprisingly elaborate set of muscles. There are three extrinsic auricular muscles, meaning muscles that connect the ear to the skull and scalp: the posterior (behind the ear), the superior (above it), and the anterior (in front of it). On top of those, six intrinsic muscles sit within the ear itself.³ Nine muscles total, all wired to motor nerves, all capable of generating electrical activity when they fire.

In most people, these muscles sit dormant for voluntary purposes. You never learned to use them, so they essentially gather dust. But the hardware is there. Surface electromyography, which picks up the electrical signals muscles produce, can detect activity in all nine of these ear muscles during ordinary facial movements like smiling or closing your eyes.⁴ So even if you have never consciously wiggled an ear in your life, those muscles are doing something. They are just not doing it loudly enough, or independently enough, for you to notice or control.

A Vestigial System That Still Works

The ear muscles humans carry around are usually described as vestigial, meaning they are evolutionary leftovers from a time when our ancestors relied on mobile ears to locate sounds. Cats, for instance, make prominent pinna movements when orienting toward both sounds and visual targets, with quick initial rotations followed by slower adjustments that help them pinpoint a sound’s origin.⁵ Dogs, horses, rabbits, and most other mammals do the same thing. At some point in primate evolution, as our ancestors developed more flexible necks and became more reliant on vision, voluntary ear mobility became less important and gradually faded.

But “vestigial” does not mean “completely dead.” It turns out your ear muscles still respond involuntarily to sound, even if you cannot consciously control them. Researchers who placed electrodes around participants’ ears found that tiny involuntary movements occurred in the muscles closest to the direction of a sound the person was paying attention to. When participants listened to one podcast while ignoring another played from a different direction, their ears made subtle “perking” movements toward the preferred podcast.⁶ These micro-movements are far too small to see with the naked eye, but they are real, measurable, and consistent. Your brain is still sending the old “point the ears at that sound” command; the muscles just can’t execute it at anything close to their ancestral scale.

Eye movements play a role too. When people rotate their eyes to one side, the postauricular muscle on that side fires more strongly, and the activity drops back to baseline when the eyes return to center.⁷ This coupling between gaze and ear-muscle activation mirrors what happens in cats, where ear and eye movements are coordinated during orienting responses. Humans have not entirely lost the wiring; they have just lost the strength and range of the output.

Can You Learn to Wiggle Your Ears?

If you cannot currently move your ears, you might be able to learn. Researchers developed a structured training program that used real-time biofeedback, letting participants see their ear-muscle electrical signals on a screen and try to increase them voluntarily. Of those who completed the facilitation phase, 60 percent were eventually able to demonstrate functional voluntary control of their peri-auricular muscles. People who progressed fastest through the initial learning phase also ended up being the most proficient at using the skill later. However, about 20 percent of participants were classified as poor learners or non-learners and could not manage even the most basic task after training.⁸

This suggests the ability is not simply a genetic switch that you either have or don’t. Many people who have never wiggled their ears possess enough latent muscle function to learn, given the right kind of practice and feedback. At the same time, there is genuine variation in the underlying anatomy and neural wiring. Some people’s ear muscles may be too atrophied or poorly connected to the motor cortex to respond to training at all. If you have spent years trying without success, you might be in that roughly one-in-five group where the hardware just is not cooperative enough.

People who can already wiggle their ears sometimes report having “discovered” the ability in childhood, often by accident while making faces or raising their eyebrows. This tracks with what researchers have observed: the ear muscles often co-activate with other facial muscles, so someone who contracts their scalp or forehead muscles strongly enough may accidentally recruit the auricular muscles and notice the movement. From there, with enough repetition, they isolate the signal and learn to do it on its own.

Why Men Seem to Do It More Often

Across every study that has looked at the question, men are more likely than women to report or demonstrate voluntary ear movement. One study found men roughly twice as likely as women to be able to wiggle their ears. Another found that significantly more men could move both ears simultaneously.² The consistency of this gap is striking, but no one has a definitive explanation for it.

One possibility is that there are subtle anatomical differences in the auricular muscles or the way they attach to the skull, possibly related to differences in scalp musculature or skull shape. Another is cultural: boys may be more encouraged to try unusual facial tricks and thus more likely to discover the ability and practice it. There is no strong evidence that hormones play a direct role, though the question has not been studied in depth. The sex difference is real and repeatable, but the “why” remains genuinely open.

The Eyebrow Connection

People who can move their ears are significantly more likely to also be able to raise one eyebrow independently.² The correlation makes anatomical sense: the frontalis muscle in the forehead and the superior auricular muscle above the ear share connective tissue in the scalp’s aponeurosis, the thin fibrous sheet that covers the top of the skull. Contracting one can tug on tissue near the other. People with above-average voluntary control of their scalp and forehead musculature probably have an easier time recruiting the auricular muscles as well.

This also helps explain why many people who wiggle their ears notice their scalp shifting or their hairline moving when they do it. The movement is not purely local to the ear. It involves a broader contraction of muscles across the side and top of the head, which the person has learned to focus toward the ear region. Isolating the ear movement from the scalp and brow movement takes additional practice and is something not all ear-wigglers manage.

Ear Rumbling Is a Different Skill

If you have ever been able to create a low rumbling sound inside your ears at will, that is a separate phenomenon from ear wiggling, though they sometimes get lumped together in conversations about unusual ear abilities. Ear rumbling involves voluntarily contracting the tensor tympani, a small muscle inside the middle ear, rather than the external auricular muscles. A study exploring this ability as a potential control method for assistive devices found that 85 percent of a general-population sample self-reported the ability to rumble, with 65 percent able to do it without any accompanying visible movements like jaw clenching or eye squeezing. When researchers validated those self-reports, participants proved about 80 percent accurate in assessing their own ability.⁹

Ear rumbling is therefore far more common than ear wiggling. If you can rumble but not wiggle, you are in good company: most people can produce the internal sound but not the external movement. The two abilities use completely different muscles, different nerves, and different motor pathways. Being good at one says nothing about your chances with the other.

Clinical Uses for Ear Muscles

Beyond party tricks, the vestigial ear muscles have started attracting interest from neurologists and audiologists. The postauricular muscle reflex, a tiny, involuntary twitch of the muscle behind the ear in response to a sudden sound, turns out to be a useful clinical signal. This reflex is sensitive to interaural timing differences, meaning it responds to tiny delays between when a sound reaches one ear versus the other, which is one of the brain’s main tools for localizing sound. Researchers have found that this sensitivity is similar to another established clinical measure of binaural processing, but the ear-muscle response has a better signal-to-noise ratio, making it easier and faster to record.¹⁰ For clinicians testing how well a patient’s brain integrates information from both ears, the ear-muscle reflex could eventually become a quicker, simpler alternative to existing methods.

There is also growing interest in the ear muscles as detectors of abnormal facial-nerve activity. In patients recovering from facial paralysis, the ear muscles can develop synkinesis, meaning they fire involuntarily when the person performs other facial movements like smiling or blinking. By recording electrical activity from the ear muscles, clinicians can track which facial-nerve pathways have regrown correctly and which have cross-wired during recovery.⁴

Assistive Technology and the “EarSwitch”

One of the more inventive uses of ear-muscle control is as an interface for people with severe physical disabilities. The idea behind the “EarSwitch” concept is that someone who cannot move their hands or speak might still be able to contract a muscle near their ear, and a sensor could translate that contraction into a command: selecting an item on a screen, triggering a call button, or navigating a simple menu. Because the ear muscles are innervated by the facial nerve rather than the spinal cord, they may remain functional in people with spinal cord injuries or motor neuron disease who have lost control of their limbs.

In a feasibility study, researchers tested this concept with both a general population and people with neurological conditions. Among the neurological group, 55 percent could produce an isolated ear-muscle contraction, and even among participants with motor neuron disease specifically, 20 percent retained the ability.⁹ The numbers are modest, but for a population that has lost most other voluntary movement, a working ear-muscle switch could be transformative. The training protocol used in earlier ear-wiggling studies, which showed that many people can learn voluntary control with biofeedback, suggests the pool of potential users could be expanded with practice.⁸

Neuroprosthetics researchers have also explored the idea of using ear-muscle signals to control hearing aids or cochlear implants. If the vestigial “point the ears at that sound” reflex could be harnessed and amplified, a smart hearing device might automatically adjust its directional microphones based on where the wearer’s attention is focused, using the same involuntary micro-movements that already track auditory attention.³ This remains largely conceptual, but it reframes the ear muscles from evolutionary leftovers into a potential interface between the brain and future hearing technology.