How to Get Your Pulse Rate: Wrist, Neck & More

You can check your pulse rate in under a minute using nothing but two fingertips and a clock. The wrist and neck are the two most accessible spots, but several other locations on the body work just as well, and each has situations where it shines. The technique is straightforward, yet small details in how you position your fingers, how long you count, and which number you start on can meaningfully change the reading you get.

The Radial Pulse at the Wrist

The inside of your wrist, on the thumb side, is the most commonly used spot for self-checking a pulse. The artery running there, called the radial artery, sits close enough to the surface that its pulsations are easy to feel in most people. To find it, turn one palm face-up and place the pads of your index and middle fingers just below the base of your opposite thumb, in the soft groove between the outer tendon and the wrist bone. Press lightly until you feel a rhythmic tapping. If you press too hard, you can flatten the artery and lose the pulse entirely, so use a gentle touch and adjust until the beats feel clear.

Count the beats for a set period while watching a clock or timer, then multiply to get beats per minute. The standard approach is to count for a full 60 seconds, which gives you the most accurate result. Shorter windows are common shortcuts, and we’ll get to when those are reliable below. Avoid using your thumb to feel the pulse, because your thumb has its own detectable pulse and can create a confusing double signal.

The Carotid Pulse at the Neck

Your neck offers a strong, easy-to-find pulse point. The carotid artery runs along each side of your windpipe, and you can feel it by placing two fingers in the soft hollow between the windpipe and the large muscle that runs down the side of your neck. Most people find this pulse faster than the wrist one, especially during exercise when blood is pumping hard and the signal is unmistakable.

There is one important caution with the neck. The carotid artery sits near pressure-sensitive receptors called baroreceptors that help regulate heart rate and blood pressure. Pressing too firmly on these receptors, or pressing on both sides of the neck at once, can trigger a reflex that slows your heart rate and drops your blood pressure. Research on carotid baroreceptor reflexes has shown that changes in pressure at this site produce graded changes in heart rhythm and vascular resistance, and those responses become even more pronounced when the body is under orthostatic stress, such as when you are standing up or dehydrated.¹ In practical terms, this means you should use light pressure, check only one side at a time, and avoid lingering on the spot once you have your count.

Other Pulse Points on the Body

The wrist and neck are the go-to sites for most people, but the human body has several other locations where arteries sit close enough to the surface to feel. Each has its niche:

• Brachial artery (inner elbow): Found on the inside of your arm just above the elbow crease. This is the spot used when taking blood pressure with a cuff and stethoscope, and it is the preferred pulse site for infants, whose tiny wrists make the radial pulse difficult to locate.
• Femoral artery (groin): Located in the crease where your leg meets your torso. This one is harder to access for self-checking and is mainly used by medical professionals during emergencies.
• Dorsalis pedis (top of the foot): Felt on the top of your foot, roughly between the first and second toe tendons. This pulse is routinely checked to assess circulation in the lower limbs, particularly in people with diabetes or peripheral vascular disease.
• Posterior tibial (inner ankle): Found just behind the bony bump on the inside of your ankle. Like the foot pulse, it helps clinicians evaluate blood flow to the legs and feet.
• Temporal artery (temple): Located on the side of your forehead, just in front of and above the ear. It can be useful for quick checks on infants or when the wrist and neck are inaccessible.

For routine self-monitoring at home, the wrist and neck are almost always sufficient. The foot and ankle pulses become relevant if you or your doctor are tracking peripheral circulation, and the brachial pulse matters most in pediatric or clinical settings.

The Apical Pulse and When It Matters

There is one pulse check that does not involve feeling an artery at all. The apical pulse is assessed by listening to the heartbeat directly through the chest wall, typically with a stethoscope placed just below the left nipple. Healthcare providers use this method when they need the most accurate beat-by-beat count, because it captures every contraction of the heart, including weak ones that may not generate a strong enough wave to reach the wrist or neck.

This distinction becomes clinically meaningful in conditions like atrial fibrillation, where the heart beats irregularly and some contractions are too feeble to push a detectable pulse to the periphery. The gap between the heart rate heard at the chest and the pulse counted at the wrist is called the pulse deficit. In atrial fibrillation patients, a higher pulse deficit has been independently linked to exercise intolerance, and it correlates positively with heart rate itself.² Clinicians sometimes have one person listen to the apical pulse while another simultaneously counts at the wrist to quantify this gap.³ If you consistently get a pulse at your wrist that feels irregular or seems to “skip” beats, the apical method is the gold standard for figuring out what is actually happening.

How Long Should You Count?

The full 60-second count is the most accurate, but most people find it tedious. The shortcut version, counting for 15 seconds and multiplying by four, is widely taught. Research comparing 15-second, 30-second, and 60-second counts at the radial artery found that the mean difference between the shorter counts and the ECG-verified rate was not statistically significant, provided the counter started at “one” rather than “zero.”⁴ That detail matters: if you start your count at zero instead of one, you systematically undercount by one beat, and the error gets amplified when you multiply up from a short window.

Separate research looking at the relationship between counting duration and accuracy confirmed that the error increases sharply as the measurement window shrinks below about 15 seconds, following a steep curve. Position made a small difference, too, with slightly lower error when lying flat compared to standing or sitting.⁵ The takeaway: a 15-second count multiplied by four works well enough for a healthy person checking their resting pulse. But if your heart rate is irregular, if you are monitoring a medical condition, or if you need a precise number for training purposes, spend the full minute.

Common Mistakes That Throw Off Your Reading

Beyond timing, several other factors can skew a manual pulse count or make the pulse hard to find in the first place:

• Using the thumb: Your thumb has its own pulse, which can lead you to count your own finger’s rhythm instead of your wrist’s. Always use the pads of your index and middle fingers.
• Pressing too hard: Excess pressure compresses the artery and can muffle or eliminate the pulse. This is especially true at the wrist. Start light and increase gradually.
• Checking immediately after exertion: If you want your resting pulse, sit quietly for at least five minutes before measuring. Heart rate drops quickly after stopping activity, so even a brief delay changes the number.
• Caffeine and stimulants: Coffee, energy drinks, and some medications raise your heart rate. For a baseline resting measurement, check first thing in the morning before consuming anything.
• Cold hands: When your fingers or the area you are checking are cold, blood vessels constrict, and the pulse becomes fainter and harder to feel. Warm your hands before trying.

If you consistently cannot find a pulse at a given site, try another location before assuming something is wrong. Anatomical variation is common; some people simply have deeper-set arteries at the wrist or a slightly unusual path for the dorsalis pedis artery on the foot. The inability to find a pulse at one spot does not mean circulation is impaired, but losing a previously palpable pulse at the ankle or foot is worth mentioning to a doctor.

Wearable Devices and Smartphone Apps

Most modern fitness trackers and smartwatches measure heart rate using a technology called photoplethysmography, or PPG. A small light on the back of the device shines into the skin, and a sensor detects changes in how much light is absorbed or reflected as blood pulses through the capillaries. The principle is the same one used in hospital pulse oximeters, just miniaturized and strapped to your wrist.⁶

Smartphone apps can do something similar. By placing your fingertip over the phone’s camera and flashlight, the camera picks up subtle color changes with each heartbeat. A meta-analysis pooling data from multiple studies found no significant difference between smartphone-based heart rate measurements and validated reference methods in adults, with a pooled correlation coefficient above 0.95.⁷ That is impressive accuracy for a device most people already carry, and it makes a phone a reasonable backup if you do not own a dedicated fitness tracker.

Where Wearables Fall Short

Despite the technology’s promise, wrist-based optical sensors have known weaknesses. Three major sources of inaccuracy have been identified: variation in skin types, motion artifacts, and signal crossover, where the sensor picks up rhythmic movement rather than blood flow.⁶

The skin-tone issue has attracted particular attention. A systematic review of ten studies examining wearable accuracy across different skin tones found that four reported significantly reduced accuracy in darker-skinned individuals, four found no effect, and two showed mixed results.⁸ The evidence is not uniform, but it means that if you have darker skin and your wearable’s readings seem inconsistent, the device may genuinely be less reliable for you, not just poorly positioned.

Exercise intensity is the other big challenge. PPG sensor accuracy drops as your workout gets harder, primarily because vigorous arm movement jostles the sensor, blood vessels in the wrist constrict under high exertion, and the signal-to-noise ratio degrades.⁹ A chest strap, which uses electrical signals rather than light, remains more accurate during intense exercise. If precision at high heart rates matters to your training, a chest strap is still the better tool.

What Your Resting Pulse Tells You

A normal resting heart rate for adults falls between about 60 and 100 beats per minute, though well-trained endurance athletes often sit in the 40s or 50s. Resting pulse is not just a number; it is a window into your cardiovascular fitness and autonomic nervous system function. A consistently elevated resting heart rate, especially one that trends upward over weeks, can signal overtraining, stress, dehydration, illness, or the early stages of a cardiovascular problem.

Tracking your resting pulse over time is more informative than any single reading. Take it at the same time each day, ideally in the morning before getting out of bed, so that caffeine, meals, and activity do not muddy the comparison. If your resting rate is consistently above 100 at rest, or if it suddenly jumps by 10 or more beats from your personal baseline without an obvious explanation, it is worth talking to a doctor.

Heart Rate Recovery After Exercise

How quickly your heart rate drops after you stop exercising provides additional health information. A slow recovery has been linked to worse cardiovascular outcomes. Research has shown that heart rate recovery measured just 10 seconds after stopping exercise is a strong predictor of long-term outcomes, even more so than recovery measured at later intervals like one or two minutes.¹⁰

That said, heart rate recovery is influenced by many factors and should not be treated as a standalone fitness score. A study analyzing recovery across different time intervals in athletes found that while recovery correlates with fitness, the relationship is only weak to moderate, and gender affects it as well. The researchers concluded that heart rate recovery should not be used as a singular predictor of physical fitness.¹¹ Older studies confirm that training status, rather than age, is the dominant factor in how quickly your heart rate falls after peak effort. Trained individuals, regardless of age, show significantly faster recovery than untrained ones.¹² So if your recovery feels sluggish, improving your aerobic fitness is the most direct lever you can pull.

Pulse Checks in Emergency Situations

In first aid and trauma settings, which pulse point you can feel carries information about how low someone’s blood pressure may have dropped. An observational study of trauma patients found that a palpable radial pulse (wrist) was associated with systolic blood pressure of at least 80 mmHg in about 91% of patients. A palpable femoral pulse (groin) corresponded to at least 70 mmHg in about 89%, and a carotid pulse (neck) to at least 60 mmHg in roughly 93%.¹³ The rough logic taught in trauma courses is that if you can feel a pulse at the wrist, blood pressure has not dropped catastrophically; if you can only find it at the neck, the situation is more serious.

These thresholds are not precise, as the same study noted limited specificity, meaning a missing radial pulse does not guarantee severe hypotension. But in a chaotic situation where a blood pressure cuff is not available, a quick pulse check at the wrist and neck gives first responders a useful rough estimate of how much trouble someone is in.

Checking Pulses in Infants and Young Children

The wrist and neck techniques that work well for adults are not ideal for babies. An infant’s neck is short and chubby, making the carotid hard to locate quickly, and their tiny wrists present similar challenges. The recommended site for checking an infant’s pulse is the brachial artery, on the inside of the upper arm between the elbow and shoulder. You place two fingers on the inner arm and press gently against the bone. For young children who have outgrown infancy, the carotid or radial sites become more practical, but the brachial remains a reliable backup. Research has compared techniques for determining the presence of a pulse in infants, and the brachial site is consistently favored in pediatric resuscitation guidelines.¹⁴

Normal heart rates in children are also much higher than in adults. A newborn’s resting rate can be anywhere from 100 to 160 beats per minute, and it gradually decreases through childhood. Comparing a child’s pulse to adult norms would cause unnecessary alarm. If you are checking a child’s pulse and are unsure what to expect, age-specific reference ranges from a pediatrician are the right benchmark.

A Long History of Feeling the Beat

Humans have been checking pulses for thousands of years. The practice dates back to ancient Egyptian and Greek medicine, where physicians used pulse characteristics not just to count rate but to assess overall health, diagnose diseases, and even predict outcomes. Over the centuries, the tools evolved from simple touch to sophisticated instruments. A historical review traces the progression from fingertip palpation through early mechanical devices to modern methods like ultrasonography and plethysmography.¹⁵ What has not changed is the underlying phenomenon: the heart’s contractions create pressure waves that travel through the arterial tree and can be detected wherever an artery passes close to the surface.¹⁶ Despite all the technology now available, two fingers on the wrist remain one of the fastest and most universally accessible health checks in existence.