What does getting a tattoo feel like, measured where it can be
By Inkantic editorial, Lettering and tools desk · updated
Being tattooed is a needle group entering the dermis at 50 to 200 times a second, in bursts of two to four seconds. The one field study that rated pain during real sessions found it flat across an hour, and rated higher in memory afterward than it was in the moment.
Every page that answers this question answers it with adjectives. This one answers it with the figures published about the instrument, the nerve fibers it reaches and the only field experiment that rated pain while real tattoos were being made. Every source below was opened and read on September 22, 2026, and the places where nobody has measured anything are named as such.
What the needle is doing while you sit there
A tattoo is a group of needles driven into the dermis, and the numbers behind that sentence come from methods sections rather than from shops. In a 2020 study of needle coatings, Chu and colleagues tattooed live pigs using a machine “with a stroke length of 1.5–3 mm operated at 50–200 Hz”, fitted with round-liner groupings of 5 and 9 needles, each needle 350 micrometers across.
Depth is the other half of it. A 2022 review of microneedle tattoo patches by Li and colleagues states that the needles “penetrate the skin to a depth from several hundred micrometers up to around 2 mm”, and the coating study calls the dermal layer that receives the pigment “approximately 2-mm thick”. In vivo imaging by Kröger and colleagues in 2023 found the pigment sitting inside cells in both layers, in keratinocytes above and macrophages and fibroblasts below.
The two papers do not quite agree at the top of the range, and the gap is worth naming rather than averaging away. Several thousand insertions per minute is roughly 50 a second, while the coating study ran its machine as high as 200 Hz, or 12,000 a minute. The low end is where both sources land; the upper end rests on one methods section.
Those figures multiply into the thing people actually want described. A machine at 50 Hz with a 5-needle grouping makes 15,000 separate skin punctures in a minute of contact; at 200 Hz with 9 needles it makes 108,000.
The same paper measured what those punctures leave behind. Two hours after tattooing, skin worked with bare needles showed “numerous open puncture wounds (20–75 µm)”, while the wounds from coated needles had already closed. That was pig skin under a microscope rather than a human forearm, but it is the closest published look at the state of the surface you are sitting on top of.
Why the first wave is a prick and the second is a burn
Two kinds of nerve fiber carry the signal, and they run at very different speeds. The review Nociceptors: the sensors of the pain pathway gives unmyelinated C-fibers a conduction velocity of 0.4 to 1.4 meters per second and myelinated A-fiber nociceptors approximately 5 to 30, and assigns the fast ones the initial pain.
The words in that paper are the ones worth borrowing, because they are published descriptors rather than someone’s simile. First pain “is described as lancinating, stabbing, or pricking”, second pain “is more pervasive and includes burning, throbbing, cramping, and aching”. A tattoo needle drives both, thousands of times a minute, which is why the sensation has a sharp edge and a dull background at once.
The machine buzz sits inside the band skin senses vibration in
Pain is not the only channel open. Pacinian corpuscles, the vibration receptors of the skin, respond in the 20 to 1000 Hz range, and a computational model covering 19 species by Quindlen-Hotek and colleagues put the human corpuscle peak at 135 to 140 Hz, against 40 to 50 for most other animals in the set.
Set that beside the 50 to 200 Hz the tattoo machine was run at in the coating study and the ranges overlap almost exactly, with the human peak sitting in the middle of the machine range. That is arithmetic on two published numbers, not a recording. Nobody has put an electrode on a corpuscle during a tattoo, so the overlap is the honest claim, and the buzz being part of what people describe still rests on their say-so.
It arrives in bursts of seconds, not as one continuous line
The rhythm is the part descriptions usually get wrong, and it was written down by a researcher sitting in a shop for three months. The field notes in Pimentel and colleagues, 2021 record that “the intervals of time the artist would keep the gun on the skin would vary between short bursts of 2–4 s and longer outlining gestures which could last between 15 and 30 s”.
That is the unit of the experience. Not an hour of continuous pain, but a few seconds on, a pause while the artist reloads ink or repositions, then a few seconds more, with the occasional long line that runs half a minute.
- Step 1The first fifteen minutes are a watch periodIn the study protocol no pain ratings were taken during the opening quarter hour, because that window served as the artist monitoring how the client was handling it.
- Step 2Work comes in bursts and linesContact ran 2 to 4 seconds at a time, with outlining gestures of 15 to 30 seconds. Ratings could only be collected in the gaps, when the machine was lifted from the skin.
- Step 3The hour ends in a breakAfter roughly the first hour, the paper records artist and client taking a 10 to 15 minute break together, then repeating the cycle until the tattoo is finished.
- Step 4Outlining comes before shadingThe artists interviewed described the first hour of most sessions as outlining, the deeper of the two settings, with shading filling space afterward. Their consensus was that lining hurts more; the study did not test it.
Does it get worse as the hour goes on
This is the one question with an actual answer, and the answer is no, at least for an hour. The nine participants in the control group of that field experiment gave six ratings across an hour-long session, and the paper reports “no significant differences between the 6 pain ratings”, with neither a linear nor a quadratic trend. The raw control means ran 3.7, 4.4, 3.3, 3.3, 2.8 and 3.3.
The obvious mechanism for escalation was never tested here. Repetitive stimulation builds second pain upward through a process called windup, and Staud and colleagues report that it “is dependent on stimulus frequency (≥0.33 Hz)”, appearing at 0.33 Hz and not at 0.17. A tattoo machine runs 150 to 600 times faster than that threshold.
The needle beats hundreds of times faster than the frequency at which repeated pain summates in the lab. But windup was measured with heat pulses on one spot of one foot, and a tattoo needle keeps moving. Nobody has run the experiment, and the field data shows ratings staying flat.
Hold the limits of that field data in view: 16 people in total, nine of them in the control group, one artist, one shop, one hour. It is a pilot, and it is also the only thing anyone has published.
What you remember is worse than what you said at the time
The same study caught something people rarely account for when they ask what it feels like. Asked at the end of the session for one overall rating, participants averaged 4.94; the average of the ratings they had given during the session was 4.00, and the difference was significant across all 16.
The anticipation side leans the same way. Control participants expected 5.11 before starting and gave 3.78 at the first in-session rating, though the authors never tested that pair against each other, so it is a direction in the numbers rather than a finding. Between a memory that inflates and an expectation that inflates, secondhand accounts of tattoo pain are gathered from the two moments when the number is highest.
Does it get easier after the first tattoo
The measured answer is about the body rather than the feeling. Lynn, Dominguez and DeCaro collected saliva from 29 adults before and after tattoo sessions and found post-session immunoglobulin A predicted by lifetime tattoo experience, P = 0.006 with an r squared of 0.711, and read it as the body habituating to the tattooing stressor across a tattooed lifetime.
That is an immune marker, not a pain rating, and the study says nothing about whether the twentieth session hurts less than the first. What it does establish is that a session registers as a measurable physiological stressor, and that the size of the response depends on how much tattooing the body has already been through.
The controls in that model are the interesting part for anyone planning a first appointment. Session duration and body mass were both held constant in the regression, which means the experience effect is not simply longer sessions or bigger people, and the authors offer the reverse reading themselves: people who heal well may be the ones who come back for more tattoos.
How little of this has actually been measured
The gap is worth stating plainly, because it is part of the answer. A Europe PMC search for articles carrying both the word tattoo and the word pain in the title returned six records when we ran it on September 22, 2026: tattoo artists’ own musculoskeletal pain, two papers on laser removal pain, a henna dermatitis case report, a nerve-pain case report after a wrist tattoo, and a patent. Not one of them is about what a tattoo session feels like.
| Question people ask | Closest published source | What it actually measured |
|---|---|---|
| What is happening in the skin | Chu 2020, Li 2022, Kröger 2023 | Machine settings, needle size, depth, and where pigment ends up |
| What kind of pain it is | Dubin and Patapoutian 2010 | Nociceptor classes and the published descriptors for first and second pain |
| How it changes over an hour | Pimentel 2021, 16 participants | Ratings on a 0 to 10 scale at six points in one session |
| Whether it gets easier over years | Lynn 2016, 29 participants | Immune and cortisol response, not pain |
| How it feels, in words | Nothing we found | No peer-reviewed description of the quality of the sensation |
Even the one field experiment was not really about tattoos. Its authors were testing virtual reality as an analgesic and chose a tattoo parlor because recipients are “more accessible” than burn patients and because a tattoo is, in their words, one of the few contexts where people “voluntarily seek out a highly painful experience”. The best data on the question is a byproduct of a study asking something else.
The bottom row is the one that matters. Every vivid comparison in circulation, the cat scratch and the sunburn and the hot wire, is somebody’s recollection passed along without measurement, and this page is not going to add another one. What can be said with a source is the mechanics, the rhythm, the shape of the pain over an hour, and the direction memory pushes it afterward.
Planning a first session around the measured parts
Placement is where people try to use a description of the sensation, and it is the wrong tool for the job. The only regression we found that tested pain against the part of the body being tattooed found body area was not a significant predictor, which is covered with its numbers on our tattoo pain chart comparison; the consequences that have been measured for placement are about line weight and how a design ages, and they live in the tattoo placement guide.
What the figures above do support is planning the clock rather than the spot. Session length is decided by you and the artist together, so a consultation checklist is worth more than a pain estimate, and the sensation does not end when the machine stops, which is why tattoo aftercare is a separate page with sources of its own.
Questions people ask
What does getting a tattoo actually feel like?
Does a tattoo hurt more than people expect before they sit down?
Why do tattoo artists stop and take breaks during a session?
Is the sensation different for outlining and shading?
When does a description of the sensation stop being useful?
- Tattooing in a peer-reviewed methods section was performed with a stroke length of 1.5 to 3 mm operated at 50 to 200 Hz, using round-liner groupings of 5 and 9 needles, each 350 micrometers in diameter — Chu et al., Scientific Reports 10, 20318, read September 22, 2026, 2020
- The same paper calls tattooing a type of minor surgery in which the skin is punctured thousands of times, and describes the dermal layer that receives the pigment as approximately 2 mm thick — Chu et al., Scientific Reports 10, 20318, read September 22, 2026, 2020
- Tattoo machine needles move in and out of the skin at high frequency up to several thousand times per minute, penetrating from several hundred micrometers to around 2 mm — Li, Kim, Lee and Prausnitz, iScience 25(10), read September 22, 2026, 2022
- Bare tattoo needles left numerous open puncture wounds of 20 to 75 micrometers in live pig skin two hours after the session, while the wounds from coated needles had closed — Chu et al., Scientific Reports 10, 20318, read September 22, 2026, 2020
- Carbon black pigment was found intracellularly in both the epidermis and the dermis of human skin in vivo, in keratinocytes and dendritic cells above and in macrophages, mast cells and fibroblasts below — Kröger et al., Dermatology 239(3), 478-493, read September 22, 2026, 2023
- Nociceptor C-fibers conduct at 0.4 to 1.4 m/s and A-fiber nociceptors at approximately 5 to 30 m/s; first pain is described as lancinating, stabbing or pricking, second pain as burning, throbbing, cramping and aching — Dubin and Patapoutian, Journal of Clinical Investigation 120(11), read September 22, 2026, 2010
- Free nerve endings are the most abundant sensory receptor in the skin, and C-fibers constitute over 90 percent of epidermal nerve fibers — Wang, An, Fan and Shang, Frontiers in Immunology 17, 1809838, read September 22, 2026, 2026
- In the only field experiment rating pain during real tattoo sessions, the nine control participants showed no significant change across six ratings collected over an hour, with neither a linear nor a quadratic trend — Pimentel, Kalyanaraman, Fillingim and Halan, Frontiers in Virtual Reality 2, read September 22, 2026, 2021
- Overall pain rated at the end of the session averaged 4.94 against an average of 4.00 for the ratings given during it, a significant difference across all 16 participants — Pimentel, Kalyanaraman, Fillingim and Halan, Frontiers in Virtual Reality 2, read September 22, 2026, 2021
- Field observation in the same study recorded the machine held on the skin in short bursts of 2 to 4 seconds and longer outlining gestures of 15 to 30 seconds — Pimentel, Kalyanaraman, Fillingim and Halan, Frontiers in Virtual Reality 2, read September 22, 2026, 2021
- Temporal summation of second pain, the build-up known as windup, depends on a stimulus frequency of at least 0.33 Hz, and appeared during repetitive heat pulses at 0.33 Hz but not at 0.17 Hz — Staud, Craggs, Perlstein, Robinson and Price, European Journal of Pain 12(8), 1078-1089, read September 22, 2026, 2008
- Pacinian corpuscles sense vibration in the 20 to 1000 Hz range, and a model covering 19 species put the human corpuscle peak at 135 to 140 Hz against 40 to 50 Hz for most others — Quindlen-Hotek, Bloom, Johnston and Barocas, Royal Society Open Science 7(4), 191439, read September 22, 2026, 2020
- Saliva taken before and after tattoo sessions from 29 adults showed post-session immunoglobulin A predicted by lifetime tattoo experience, P = 0.006 with an r squared of 0.711, which the authors read as the body habituating to the tattooing stressor — Lynn, Dominguez and DeCaro, American Journal of Human Biology 28, 603-609, read September 22, 2026, 2016
- A Europe PMC search for articles carrying both the word tattoo and the word pain in the title returned six records, none of which measured what being tattooed feels like — Inkantic, Europe PMC title search, run September 22, 2026, 2026
- At 50 to 200 Hz with 5 or 9 needles in the grouping, a machine in contact with skin makes 15,000 to 108,000 individual punctures per minute of contact — Inkantic, arithmetic on the machine settings and needle groupings published by Chu et al. 2020, 2026