Where Is Your Temple on Your Face?

Your temple is the slightly flat or gently concave area on each side of your head, sitting between the outer corner of your eye and the top of your ear. More precisely, it spans from roughly the tail end of your eyebrow backward toward where the ear begins, with its upper border near the hairline and its lower edge along the bony ridge you can feel just above your cheekbone. It is one of the most anatomically complex patches of real estate on the human skull, layered with muscle, fat, major blood vessels, and some of the thinnest bone anywhere on the body.

Finding It on Your Own Face

The easiest way to locate your temple is to clench your jaw. When you do, you’ll feel a muscle tighten and bulge in the shallow depression between your eye and your ear. That muscle is the temporalis, and the area it fills is your temple. The region is roughly the size of a small palm. Its front edge sits just behind the bony rim at the outer corner of your eye socket, and its rear edge fades into the side of the skull above and behind the ear. Its floor is formed by the temporal bone and parts of the neighboring skull bones, while its surface is covered by skin, a thin layer of fat, and a tough sheet of connective tissue called the temporal fascia.

If you press your fingertips lightly against this spot, you will likely feel a gentle pulse. That is the superficial temporal artery, one of the most accessible arteries in the body, running just beneath the skin on its way up from the jaw toward the scalp.

What Lies Beneath the Skin

The temple packs a surprising amount of anatomy into a small area. Moving from the surface inward, you pass through several distinct layers.

The skin here is relatively thin. Beneath it sits a layer of subcutaneous fat, and then the superficial temporal fascia, a tough fibrous sheet that is continuous with the connective tissue covering the rest of the scalp. The superficial temporal artery travels within this fascial layer, typically splitting into a forward-running branch toward the forehead and a backward-running branch toward the crown of the head.¹ Also running through this zone is the temporal branch of the facial nerve, which controls the muscles that raise your eyebrows and wrinkle your forehead. Surgeons operating in this area take great care to avoid cutting it, because damage causes the forehead on that side to go slack.²

Deeper still lies the temporalis muscle itself, a broad, fan-shaped muscle that fills the shallow bowl of the temporal fossa. Its fibers converge downward and pass beneath the cheekbone to attach to the lower jaw. When you bite down, the temporalis is one of the primary muscles generating force. Beneath the muscle sits the periosteum, the thin membrane covering the bone. And the bone itself, the squamous part of the temporal bone and adjoining skull plates, is among the thinnest anywhere on the cranium.

The Pterion and Why a Temple Blow Is Dangerous

Within the temple region sits a landmark that medical and forensic professionals pay close attention to: the pterion. This is the spot where four skull bones meet in an H-shaped junction. It sits roughly two and a half centimeters behind and just over a centimeter above the bony ridge at the outer corner of the eye socket.³ The bone at this junction can be remarkably thin. One study found that while the average skull thickness at the center of the pterion is about 4.4 millimeters, the thinnest point in the surrounding temporal bone can be as little as 1 millimeter.³

Running just inside the skull at this location is the middle meningeal artery, a major blood vessel that supplies the membranes surrounding the brain. In roughly two-thirds of people, the anterior branch of this artery lies directly behind the pterion.³ A fracture at this thin point can rupture the artery, causing blood to pool between the skull and brain membrane, a condition called an epidural hematoma.⁴ This is why a blow to the temple is considered especially dangerous compared to impacts elsewhere on the skull. The combination of thin bone and a major artery just beneath it creates a vulnerability that other skull regions do not share.

The Superficial Temporal Artery

The pulse you feel at your temple comes from the superficial temporal artery, one of the terminal branches of the external carotid artery. It rises in front of the ear, crosses the zygomatic arch (the cheekbone ridge), and climbs into the temple region just under the skin. It typically divides into two main branches: one heading toward the forehead and one heading toward the back of the scalp.¹

Because this artery sits so close to the surface, it is used clinically in several ways. Doctors sometimes check the temporal pulse when assessing blood flow to the head. It is also the artery that becomes inflamed in temporal arteritis, a condition covered below. And in emergency or surgical settings, it can serve as an access point for monitoring or as a donor vessel for bypass procedures. For most people, the artery is simply the reason you can see or feel a visible pulsation at your temple, particularly after exercise or when you’re warm.

Temple Headaches and Muscle Trigger Points

If you’ve ever had a headache that feels like a tight band wrapping around your temples, the temporalis muscle is a likely contributor. Research on chronic tension-type headaches has found that small, hypersensitive knots in the temporalis muscle, known as trigger points, can produce pain that closely mimics the patient’s usual headache. In one study, stimulating these trigger points reproduced both local pain at the temple and referred pain radiating to other parts of the head, matching the pattern that patients recognized as their typical headache.⁵

These trigger points are not randomly scattered. Research in women with chronic tension-type headaches found them concentrated in the front part of the temporalis and the middle of the muscle belly, with pressure sensitivity increasing from back to front across the muscle.⁶ In practical terms, this means the area just behind your eyebrow and slightly above it is often where temple headache pain is most intense. If you’ve noticed that pressing firmly on that spot during a headache feels both painful and oddly relieving, the trigger point mechanism is a plausible explanation.

Temple pain also arises from temporomandibular joint problems. People with TMJ pain report higher baseline pain during jaw movements compared to pain-free individuals, along with reduced mouth opening and slower jaw movement.⁷ Because the temporalis muscle attaches directly to the jaw, any dysfunction at the jaw joint can refer pain upward into the temple. People who clench or grind their teeth at night often wake up with temples that feel sore and tight, even though the source of the problem is really at the jaw.

Temporal Arteritis

One condition specifically targets the temple and takes its name from it. Giant cell arteritis, also called temporal arteritis, is an inflammatory disease that affects medium- and large-sized arteries, with a strong predilection for the branches of the carotid artery that supply the head. It predominantly strikes adults over 50 and is more common in women. Symptoms include headache (often localized to the temple), scalp tenderness, jaw pain while chewing, and in serious cases, sudden vision loss.⁸

The disease gets its common name because the superficial temporal artery at the temple is one of the most frequently affected vessels, and also one of the easiest to examine. Historically, a biopsy of this artery has been the gold standard for diagnosis. More recently, ultrasound imaging has emerged as a useful non-invasive alternative. Duplex ultrasound can reveal a characteristic “halo sign,” a dark thickening of the arterial wall representing inflammation, which helps clinicians diagnose the condition without surgery.⁹ The visibility of the superficial temporal artery at the temple surface is what makes this diagnostic approach possible in the first place.

If you’re over 50 and develop a new, persistent headache focused at one or both temples, especially if accompanied by scalp tenderness when you brush your hair or jaw fatigue while eating, it’s worth bringing up with a doctor promptly. The vision loss associated with temporal arteritis can be permanent, but early treatment with corticosteroids typically prevents it.

Why Temples Hollow With Age

One of the most visible signs of facial aging is temporal hollowing, the deepening of the concavity at the temples that can make the forehead look wider and the face more skeletal. This isn’t primarily a bone change. Research using imaging to track fat compartment changes over time has found that the superficial temporal fat pad thins in three dimensions as people age, while the deeper subcutaneous fat layer stays relatively stable.¹⁰ The superficial fat also elongates, stretching from about 39 millimeters to nearly 44 millimeters on sagittal measurement, suggesting it both thins and sags.¹⁰

The practical implication is that temporal hollowing is largely a soft tissue phenomenon. The bone and the deep fat stay roughly the same, but the superficial fat that gives the temple its youthful convexity thins out. This is why cosmetic practitioners sometimes use dermal fillers or fat grafting in the temple area to restore volume. It’s also why very lean people and endurance athletes sometimes develop noticeable temporal hollowing at younger ages: with less fat to begin with, any loss becomes more apparent. Conversely, people who lose significant weight rapidly may notice their temples becoming more concave before other facial changes register.

The Temporalis Muscle and Chewing

The temporalis muscle is one of the four major muscles of mastication, and you can watch it work in real time at your own temple. Place your fingers on the flat area above and behind your eye, then open and close your mouth slowly. You’ll feel the muscle contract on closing and relax on opening. The muscle generates a substantial share of total bite force, and its fibers are arranged so that different parts pull in slightly different directions. The more vertical fibers near the front of the temple mainly close the jaw, while the more horizontal fibers toward the back help retract it, pulling the lower jaw backward.

This arrangement matters because it means the entire temple region is mechanically active during eating. Chronic clenching or bruxism doesn’t just fatigue the jaw joint; it overworks the temporalis and can cause the muscle to hypertrophy, making the temple area look fuller or more prominent. In some people, prolonged clenching produces a visibly bulging temple. On the flip side, disuse or atrophy of the temporalis, whether from nerve damage, prolonged soft diets, or certain medical conditions, can cause the temple to appear sunken even in young individuals.

Surgical Risks in the Temple Region

For surgeons, the temple is a region that demands caution on multiple fronts. Procedures like facelifts, brow lifts, and craniotomies all traverse temple anatomy, and the consequences of a misstep can be functionally significant. The temporal branch of the facial nerve, which controls forehead movement, runs through the area in a predictable but variable corridor. Studies mapping this nerve place it anywhere from the midpoint of the cheekbone arch to about a finger’s width behind it, traveling within or just beneath the superficial temporal fascia.²

Neurosurgeons performing craniotomies through the pterion have an additional concern: the proximity of the middle meningeal artery just inside the bone. The pterion is actually a favored entry point for brain surgery precisely because it offers access to multiple important areas of the brain, but the artery running immediately beneath it means that the initial bone cuts must be made carefully to avoid tearing it.⁴ The irony of this surgical approach is that the very feature that makes the temple dangerous in trauma, thin bone overlying a major artery, is what makes it useful in the operating room, because less bone needs to be removed to gain access.

Sex Differences in Temple Anatomy

The bony structures forming the temple show measurable differences between males and females. Forensic researchers have used these differences for sex identification from skeletal remains. A study using 3D imaging of the temporal bone’s bony projections, including the mastoid process (the bump behind your ear), the styloid process (a slender spike beneath the skull base), and the zygomatic process (the cheekbone arch), found that nearly all measured dimensions were significantly larger in males than in females.¹¹

In living people, these differences are less obvious but still present. Men tend to have slightly more prominent zygomatic arches and larger mastoid processes, contributing to a broader, more angular temple region. Women typically have smoother, less pronounced bony contours at the temple. These structural differences also influence how aging manifests. Because men generally have a thicker layer of temporalis muscle (driven by higher androgen levels), they may be somewhat buffered against early temporal hollowing. Women, who tend to carry proportionally more subcutaneous fat at the temple and less muscle mass, may notice hollowing sooner as the fat layer thins.

The Taiyang Acupoint in Traditional Medicine

The temple has a long history in traditional medicine practices. In Traditional Chinese Medicine, the point known as Taiyang sits in the depression at the outer end of the eyebrow, at the front edge of the temple. It is one of the most commonly stimulated acupoints and has been used for centuries to treat headaches, eye strain, and facial pain. Modern researchers have investigated whether stimulating this point produces measurable changes. One study in myopic patients found that acupuncture at the Taiyang point was associated with improvements in contrast sensitivity and detectable shifts in brain electrical activity patterns, though research in this area remains limited and the clinical significance of such changes is still debated.

Whether or not one subscribes to acupuncture theory, the Taiyang point’s location at the temple makes anatomical sense as a pressure-relief target. It sits directly over the anterior portion of the temporalis muscle, near where trigger points most commonly form, and adjacent to the superficial temporal artery and the temporal branch of the facial nerve. The concentration of pain-sensitive structures in this small area may explain why applying pressure there during a headache feels intuitively helpful, regardless of the theoretical framework behind it.