INSIDE THE INDUSTRY: LASER TATTOO REMOVAL , and THE CANVAS CURATION OF 50 CENT
Curtis Jackson, better known as 50 Cent, spent years building a body of tattoos that told the story of where he came from — Southside Queens, the mother he lost at eight, and the life that shaped him before fame. So when he began removing some of them, the instinct was to read it as rejection. A man erasing his past. That’s not what happened.
By 2009, as Jackson’s film career expanded, he had begun removing tattoos from his right arm. He left major pieces on his back intact. His reasoning was practical: covering visible tattoos for film could add hours to his day before shooting even began. The removal wasn’t necessarily about changing what the tattoos meant. It was about what they required of him professionally.
There is no public confirmation of which laser or treatment protocol Jackson received. At the time, however, Q-switched lasers were well established for tattoo removal, & the 1064-nanometer Nd:YAG had become an important option for removing dark pigment from more deeply pigmented skin.
Laser removal works by sending extremely short pulses of energy into tattoo pigment, breaking ink particles into smaller fragments that the body can gradually clear. The challenge is that tattoo pigment isn’t the only material in skin capable of absorbing light. Melanin can absorb some of that energy too, increasing the possibility of pigment changes or injury to surrounding skin.
The longer 1064-nanometer wavelength is absorbed less by epidermal melanin than many shorter wavelengths, which can lower that risk in darker skin. But treatment still requires careful assessment.
The Problem With Measuring Risk
One of the most familiar tools used to categorize skin before laser treatment is the Fitzpatrick skin phototype scale. Today it contains six categories, ranging broadly from skin that burns easily and tans minimally to deeply pigmented skin that is much less likely to burn visibly. But the scale wasn’t originally designed to measure skin color.
Thomas Fitzpatrick developed it in 1975 to help determine ultraviolet treatment doses. The original system classified patients largely according to how their skin responded to sun exposure — whether it burned and how readily it tanned. Darker phototypes were added later. That history matters because Fitzpatrick typing still depends partly on patient history and clinical judgment. How easily do you burn? How deeply do you tan? What happens after substantial sun exposure?
Those questions sound straightforward until different patients experience or describe sun damage differently.
Research has shown that people with darker skin do not always identify with conventional descriptions of “sunburn.” Redness may be less visually obvious, while tenderness, irritation, heat, itching or peeling may be more recognizable. If the language used in classification doesn’t match the way someone experiences their own skin, misclassification becomes possible.
That matters when a laser is being used to distinguish pigment in a tattoo from pigment in the skin around it.
Published complication rates vary widely depending on skin type, wavelength, tattoo color, treatment settings and study design. Pigmentary changes such as hyperpigmentation and hypopigmentation are recognized risks, particularly in darker skin. Scarring is also possible, though less common with appropriate technique.
That makes informed consent more important than simply initialing a form. Clients should understand that removal often takes multiple sessions, complete clearance isn’t guaranteed, pigmentation changes can occur, and some complications can take significant time to resolve.
Measuring Skin Isn’t a New Idea
What’s striking is that objective measurement of human skin predates the Fitzpatrick scale by decades. In 1939, researchers Edward Edwards and S. Quimby Duntley used spectrophotometric measurements to study how living human skin reflects light. Their work examined contributors to skin color including melanin, hemoglobin-related pigments and carotene.
Spectrophotometry and Fitzpatrick typing don’t measure exactly the same thing. Fitzpatrick describes UV response; spectrophotometry measures optical characteristics more directly. But modern researchers have used objective pigment measurements to evaluate the limitations of subjective skin classification.
That brings Jackson’s story back into focus. His tattoo removal began because another industry placed practical demands on the appearance of his skin. Following that decision into the removal chair exposes a larger issue: tattoo-removal technology has become increasingly precise, while one of the most familiar ways of categorizing the person being treated still relies partly on six broad categories and remembered reactions to sunlight. That doesn’t make the Fitzpatrick scale useless. It means its limits matter.
Tattoo removal can require significant money, healing time and repeated procedures. Clients deserve technology chosen for their tattoo, but they also deserve an assessment precise enough for the skin carrying it.
The tools for more objective measurement have existed for nearly a century. Maybe it’s time science and technology stopped seeing skin in broad categories — and started accounting for the full spectrum .
