How Ink Colors Affect Tattoo Removal - Original You
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How Ink Colors Affect Tattoo Removal

How Ink Colors Affect Tattoo Removal: Understanding Laser Effectiveness and Treatment Outcomes

Tattoo ink color is one of the single biggest determinants of how effectively a laser can fade or remove a tattoo, and understanding color-specific physics helps set realistic expectations for clearance, session counts, and risks. This article explains the optical and chemical reasons some pigments respond readily to laser energy while others resist treatment, and it shows how advances in picosecond, multi-wavelength lasers change those outcomes for many colors. Readers will learn which colors are hardest to remove and why, how wavelengths and pulse duration influence pigment breakdown, typical session ranges by color, best practices for multi-color removal, and common patient concerns such as white-ink oxidation and skin-tone considerations. Early in the discussion we briefly note a local, advanced option—Original You’s physician-led clinic uses the Enlighten III picosecond system and adjuncts like the DeScribe PFD Patch to improve comfort and clearance—but the focus remains on the science that determines results for every patient. After the technical sections, practical guidance covers session planning, pain and aftercare strategies, and how to evaluate before/after evidence when choosing a provider.

Which Tattoo Ink Colors Are Hardest to Remove with Laser?

Different pigments absorb light differently, so removal difficulty depends on each ink’s absorption spectrum and particle properties, which determine laser targeting effectiveness. Black ink contains broad-spectrum chromophores that absorb across many wavelengths and typically fragments well under 1064nm pulses; by contrast, white, yellow, and pale pastels scatter light or lack strong absorption peaks, making them the most refractory. Mid-spectrum colors like green and blue require wavelengths that match their absorption peaks (often in visible/near-visible ranges) and benefit from shorter, high-peak-power pulses to shatter particles. Understanding these optical properties helps clinicians pick wavelengths and pulse durations to maximize photomechanical fragmentation while reducing thermal injury, so choosing the correct laser settings is the first practical step toward improved clearance.

What Makes White and Yellow Ink More Difficult to Remove?

White and yellow pigments present unique optical and chemical challenges because they often reflect or scatter incident light rather than absorb it, limiting the laser energy the pigment itself receives. White pigments frequently contain titanium dioxide or similar compounds that scatter visible light, so lasers that rely on absorption produce less photomechanical effect; additionally, some white pigments can oxidize or darken when exposed to certain wavelengths, a phenomenon that complicates treatment planning. Yellow pigments lack strong absorption peaks in common laser wavelengths like 532nm or 1064nm, so they may require specialized approaches and tempered expectations. Clinically, providers may recommend conservative trial treatments and emphasize fading rather than guaranteed complete removal for these colors before discussing alternative strategies such as cover-up or surgical excision.

Why Are Green and Blue Inks Considered Challenging for Laser Removal?

Green and blue inks absorb less efficiently at 1064nm and often require visible-range wavelengths such as 532nm, 660–690nm, or 670nm variants to match their chromophore peaks, which makes targeting more complex and sometimes less safe for darker skin tones. These pigments also tend to include larger or more chemically stable particles that resist fragmentation, so picosecond-level photomechanical pulses that deliver very high peak power in extremely short durations improve particle shattering over older nanosecond devices. In practice, successful green/blue removal often requires multi-wavelength strategies and careful session sequencing to prioritize the most resistant hues first; providers balance energy, spot size, and cooling to optimize efficacy while managing pigment-specific responses and minimizing side effects.

How Does Black Ink Respond to Laser Tattoo Removal?

Black ink is the easiest color to remove because it absorbs broadly across visible and near-infrared wavelengths, particularly at 1064nm, enabling consistent energy uptake that fragments pigment into particles small enough for immune clearance. Typical clinical experience shows black tattoos clear faster and in fewer sessions than colored pieces, as the laser energy produces effective photothermal and photomechanical effects on carbon-based pigments. For darker skin tones, practitioners favor 1064nm with conservative fluences and larger spot sizes to reduce epidermal heating and pigmentary complications, and careful parameter selection plus gradual treatments enhances safety. Black ink’s predictability makes it the reference point when estimating session counts for multi-color tattoos, and it often serves as the first target in mixed-color treatment plans.

Laser Tattoo Removal Principles and Applications for Different Tattoo Colors

The commonly used lasers for tattoo removal are the Q-switched 694-nm ruby laser, the Q-switched 755-nm alexandrite laser, the 1,064-nm Nd:YAG laser, and the 532-nm Nd:YAG laser. Newer techniques and methods are evolving in tattoo removal with lasers. Choosing the right laser for the right tattoo color is necessary for a successful outcome. Our review aims to understand the principles of laser tattoo removal and their applications for different types and colors of tattoos. The review also highlights the complications that can occur such as dyspigmentation, allergic reactions, epidermal debris, ink darkening, and so on, in this process and how to prevent them.

Lasers for tattoo removal: a review, S Choudhary, 2010
Ink Color GroupRemoval DifficultyRecommended Wavelengths & Notes
White / Yellow / PastelsHigh difficulty; risk of poor absorption and oxidationNo strong absorption at common wavelengths; approach conservatively; expect fading rather than full clearance
Green / BlueModerate to high difficulty; wavelength-specific targeting neededVisible-range wavelengths (e.g., 532nm alternatives, 660–690nm) and picosecond pulses improve outcomes
Red / OrangeModerate difficulty; variable by pigment chemistry532nm and 670nm-range options are effective for many reds; picosecond improves response
BlackLow difficulty; most responsive1064nm is primary; broad absorption leads to fewer sessions and predictable clearing

This table summarizes relative difficulty and foundational wavelength guidance for key ink groups, allowing quick clinical orientation before more detailed planning.

The following quick list highlights colors most likely to present treatment challenges:

  1. White, yellow, and faded pastels tend to respond poorly to standard lasers and may darken.
  2. Green and certain blues often require specific visible-range wavelengths and multiple sessions.
  3. Some red and orange pigments vary widely in chemistry and can be stubborn depending on formulation.

These color-based priorities guide early consultation expectations and initial treatment sequencing, preparing patients for likely outcomes and the option to pursue advanced-laser strategies.

How Does Laser Technology Impact Removal of Different Ink Colors?

Laser effectiveness for colored ink is governed by three core parameters: wavelength (which determines which pigments absorb energy), pulse duration (which controls photomechanical versus photothermal effects), and peak power/fluence (which affects fragmentation efficiency). Picosecond lasers produce extremely short pulses that create stronger photomechanical shocks to pigment particles, breaking them into smaller fragments that immune cells can clear more rapidly compared with older nanosecond Q-switched devices. Multi-wavelength systems allow clinicians to select energy that best overlaps pigment absorption peaks in the same device, reducing the need to refer patients out for specialty wavelengths and improving multi-color session planning.

What Is the Advantage of Picosecond Lasers for Colored Ink Removal?

Picosecond lasers deliver energy in trillionths of a second, producing a dominant photomechanical effect that shatters pigment particles with less collateral thermal damage to surrounding tissue. This mechanism is especially useful for small or recalcitrant colored particles—such as green, blue, or some modern inks—because the rapid shockwave fragments them into sizes more easily removed by macrophages. Clinical data and industry reports indicate that picosecond devices commonly reduce the number of sessions needed versus Q-switched lasers, and they can lower the risk of scarring or pigmentary changes when parameters are optimized. Ultimately, the photomechanical dominance of picosecond pulses translates to faster visible fading for many colors.

Picosecond Lasers for Tattoo Removal: A Systematic Review of Effectiveness and Safety

Seven of the eight trials explored the usage of either 755, 758, 795, 1064, or 1064/532-nm picosecond lasers for black and blue ink tattoos. In the human trials, 69–100 % of tattoos showed over 70 % clearance of pigment after 1–10 laser treatments. Reported side effects included pain, hyperpigmentation and hypopigmentation, blister formation and transient erythema, edema, and pinpoint bleeding. Included articles varied in type of laser investigated, mostly non-comparative studies and with a medium to high risk of bias. There is sparse evidence that picosecond lasers are more effective than their nanosecond counterparts for mainly black and blue ink tattoo removal, with minor side effects.

Picosecond lasers for tattoo removal: a systematic review, O Reiter, 2016

How Do Multi-Wavelengths Improve Multi-Color Tattoo Removal?

Multi-wavelength systems allow clinicians to switch between or combine wavelengths that align with different pigment absorption spectra within a single treatment session, enabling more efficient targeting of mixed-color tattoos. For example, a device offering both 1064nm and a visible-range wavelength can treat black and certain reds or blues in sequential passes with appropriate settings, reducing overall treatment time versus single-wavelength strategies. This flexibility also supports safer parameter selection for varied skin tones by using the longer wavelength where epidermal melanin absorption is a concern. In practice, dual wavelengths improve clinical throughput and allow more tailored, color-specific plans.

How Does the Enlighten III Laser Compare to Older Q-Switched Lasers?

Enlighten III is a multi-wavelength picosecond platform that combines mutiple wavelengths with dual pulse-duration options to expand color coverage and adjust treatment physics to pigment characteristics. Compared to legacy Q-switched (nanosecond) systems, Enlighten III commonly achieves faster clearance for many colored inks, reduces the number of sessions required for stubborn hues, and offers pulse flexibility that lets clinicians balance photomechanical and photothermal effects. This device’s advanced specifications make it particularly effective against pigments that historically challenged Q-switched lasers, offering clinicians a broader toolkit to tailor treatment to each color and skin tone.

Laser TypeKey SpecsEffectiveness by Color / Notes
Enlighten III (picosecond)Multi-wavelength, dual pulse options, high peak powerBetter for green/blue/red variants; reduces sessions and improves comfort
Q-switched (nanosecond)Single or limited wavelengths, longer pulse durationsEffective for black and some colors, but often requires more sessions
Visible-range specialized lasersSpecific wavelengths tailored to blue/green/redUseful for targeted colors but less flexible than multi-wavelength platforms

This comparison table maps device classes to practical color outcomes and helps explain why modern picosecond, multi-wavelength platforms shift the treatment landscape.

Key practical takeaways about technology selection:

  1. Match wavelength to pigment absorption for the best response.
  2. Prefer picosecond pulses for stubborn or finely particulate colored inks.
  3. Use multi-wavelength devices to streamline multi-color treatment plans.

These guidelines guide clinicians when recommending devices or explaining why certain tattoos need specialized approaches.

How Many Sessions Are Needed to Remove Different Tattoo Ink Colors?

Session ranges vary widely by color, tattoo age and depth, ink formulation, and patient immune response, but clinicians use color-based averages to set expectations and plan per-pigment sequencing. Black tattoos typically require the fewest sessions, while green/blue and white/yellow/pastel groups usually need more treatments and may never fully clear in some cases. Advanced picosecond systems commonly reduce session counts across many colors, and realistic planning includes observing initial fading response over the first few sessions before committing to final estimates. Transparent consultation that lists expected ranges and variables helps patients budget time and cost while aligning their goals—full clearance versus fade for cover-up—with achievable outcomes.

How Does Ink Color Affect the Number of Laser Sessions Required?

Color maps to session ranges because pigment absorption determines how much energy is converted into effective photomechanical fragmentation; therefore:

  • Black: often the fewest sessions, commonly in the low single digits to mid-range depending on size and depth.
  • Red/Orange: moderate sessions; many respond well but formulation varies.
  • Blue/Green: higher ranges due to wavelength matching needs and pigment stability.
  • White/Yellow/Pastels: highest difficulty and most sessions with uncertain clearance.

Clinicians use these color-linked ranges as starting estimates and then refine based on observed fading, skin response, and any adjunctive measures introduced during treatment planning.

Ink ColorAverage Sessions RangeFactors That Increase/Decrease Sessions
Black2–8Larger, older, or dense black ink increases sessions; superficial black fades faster
Red / Orange3–10Variable pigment chemistry; some reds respond quickly while others resist
Blue / Green4–12+Requires wavelength matching and sometimes more sessions for dense pigments
White / Yellow / Pastels6–15+Poor absorption and oxidation risk often prolong or limit clearance

This range table gives a practical framework for early expectations and emphasizes why individualized consultation matters.

Can Advanced Lasers Reduce Treatment Time for Stubborn Colors?

Yes, advanced picosecond lasers frequently lower the overall number of sessions needed for many stubborn colors by producing stronger photomechanical fragmentation and enabling safer, higher-peak-power treatments. Industry reports suggest session reductions in the range of roughly 30–40% for certain colors when switching from Q-switched nanosecond systems to modern picosecond devices, though individual outcomes vary. These reductions come with caveats: pigment chemistry, depth, and patient immune response still heavily influence results, and no device can guarantee complete clearance for all inks. Providers should present advanced-laser benefits alongside realistic caveats during initial consults.

Picosecond Laser Effects on Multi-Colored Tattoo Removal in Guinea Pigs

Picosecond lasers have emerged as the leading technology for tattoo removal due to their shorter pulse lengths. To clarify the features of picosecond lasers, we compared picosecond and nanosecond lasers in their ability to remove multi-colored tattoo in an animal model. We first compared a nanosecond quality-switched Nd:YAG laser with picosecond Alexandrite and quality-switched Nd:YAG lasers and then the picosecond quality-switched Nd:YAG laser with the picosecond Alexandrite laser, using a guinea pig model. The colors in the tattoos included red, orange, yellow, green, blue, and black. Guinea pigs were treated for one session with each type of laser. The clearance of pigmentation and local reactions were evaluated based on clinical photographic assessment, quantitative assessment using a colorimeter, histopathology, and electron microscopic examination before laser treatment, immediately after, and at 3 weeks after the treatment. Regardless of pulse duration, a 532-nm l

Effects of picosecond laser on the multi-colored tattoo removal using Hartley guinea pig: A preliminary study, SJ Choe, 2018

What Patient Factors Influence Tattoo Removal Duration by Color?

Several patient and tattoo variables alter session counts beyond color alone: tattoo age and depth, ink quality and layering, anatomical location (extremities often clear slower), immune system competence, and skin tone—all influence clearance speed and safety. Older tattoos may fade more readily as inks have already fragmented or degraded, while professional tattoos with dense, modern pigments often require more sessions. Skin tone affects wavelength choice and parameter conservatism to avoid hypo- or hyperpigmentation, so clinicians adjust plans and set expectations based on these interacting factors. Preparing a checklist of these variables before consultation improves treatment accuracy and outcome predictability.

Patient factors checklist to bring to consult:

  1. Photos showing the tattoo and surrounding skin under good lighting.
  2. Any known history of tattoo sessions or ink brands (if available).
  3. Skin type or Fitzpatrick classification and any history of pigmentary issues.

What Are the Best Practices for Removing Multi-Color Tattoos?

Treating multi-color tattoos requires strategic sequencing, wavelength selection, and careful patient comfort management to enable multiple passes without excessive thermal accumulation. Practitioners commonly prioritize the most refractory pigment first or plan combined passes when device safety parameters allow, spacing sessions to permit immune clearance and skin recovery. Adjunctive tools such as protective patches that enable multiple passes and topical or in-office analgesia improve tolerance and may permit more aggressive but safe targeting per session. Coordinated aftercare and consistent photographic tracking ensure clinicians can objectively adjust parameters as pigments fade.

How Does Laser Wavelength Selection Affect Multi-Color Tattoo Removal?

Wavelength selection determines which pigments absorb energy in a given pass, so sequencing matters: providers may treat black first with 1064nm to reduce background density, then use visible-range wavelengths for reds or blues in later passes. When safe, combining wavelengths in a single visit can shorten total treatment time, but clinicians must monitor cumulative fluence and tissue heating to prevent adverse effects. Practical sequencing balances immediate pigment targeting with skin safety, and choosing the correct order often improves overall clearance by preventing less-absorbing pigments from masking or scattering energy to the more responsive inks.

Can the DeScribe PFD Patch Enhance Removal of Colored Tattoos?

The DeScribe PFD Patch is an adjunct that protects the epidermis while allowing multiple passes in one session, reducing pain and enabling higher cumulative work on the target pigment during a visit. By physically separating and stabilizing the treatment site, the patch helps clinicians perform additional passes with less discomfort and more controlled photomechanical action, which can shorten overall treatment timelines for complex multi-color tattoos. Patients who tolerate multiple passes under PFD protection often see faster fading per session, and the patch is most useful for those seeking efficiency without sacrificing safety.

How to Manage Pain and Skin Sensitivity During Multi-Color Removal?

Effective pain and sensitivity management combines optional topical anesthesia, cooling systems, and adjunctive patches to make sessions tolerable while maintaining treatment efficacy; pre-treatment numbing and post-care cooling reduce immediate discomfort and inflammation. In-office approaches pair topical anesthetics with real-time cooling and pacing of pulses to avoid excessive thermal buildup, and the DeScribe PFD Patch can further decrease nociceptive input during multiple passes. Post-procedure care—gentle cleansing, protective ointments, and sun avoidance—minimizes irritation and supports immune-mediated pigment clearance, enabling predictable progression through multi-session plans.

Practical pain-management list:

  1. Apply optional topical numbing agents per clinic protocol before treatment.
  2. Use active cooling during and after pulses to reduce epidermal heat.
  3. Employ PFD patches when multiple passes are planned to lower discomfort.

A combined approach to comfort preserves clinical options for more aggressive per-session work and supports better final outcomes.

What Are Common Patient Concerns About Ink Color Removal?

Patients frequently worry whether certain colors are impossible to remove, whether white ink will darken, and how their skin tone affects safety and results; addressing these concerns with evidence-based explanations improves decision-making. Clinicians should provide concise, PAA-style answers that clarify myths and outline practical expectations: some colors are highly resistant but many can be substantially faded with modern lasers, white ink can oxidize under some treatments but strategies exist to reduce the risk, and darker skin tones require conservative parameter selection to balance clearance with pigmentary safety. Transparent discussion of these topics during consultation reduces surprise and improves adherence to recommended treatment plans.

Does White Ink Turn Black or Gray After Laser Treatment?

White ink can darken (appear black or gray) after laser exposure due to oxidation of certain white pigments, a chemical reaction that changes the pigment’s optical properties and can make it more absorbent to laser energy. Modern strategies to manage this risk include conservative test spots, selecting pulse characteristics that favor photomechanical rather than oxidative thermal chemistry, and pacing treatments with careful observation. While advanced picosecond devices and targeted strategies reduce the incidence of oxidation, clinicians must explain that risk remains and that treatment may be staged to assess pigment response before proceeding broadly.

Are Some Colors Impossible to Remove Completely?

Absolute impossibility is rare but some pigments—particularly certain whites, yellows, and very light pastels—are extremely difficult to eradicate due to poor laser absorption and chemical stability; in those cases, substantial fading rather than complete clearance is a more realistic goal. Advances in laser technology have converted previous “impossible” colors into “difficult but improvable” categories, yet no device guarantees universal complete removal across all inks and skin types. Clinicians should frame outcomes as a spectrum from full clearance to sufficient fading for cover-up, and recommend conservative trial treatments to assess true responsiveness before promising complete removal.

How Does Skin Tone Affect Laser Tattoo Removal by Ink Color?

Skin tone affects wavelength choice and parameter conservatism because epidermal melanin competes for laser energy, increasing the risk of hypo- or hyperpigmentation if settings are too aggressive; therefore, longer wavelengths like 1064nm are favored for darker Fitzpatrick types when treating darker pigments. Providers adjust spot size, fluence, and cooling strategies to maintain safety, and they may stage treatments with lower energy to evaluate pigment response before escalation. Communicating these precautions helps patients understand why session counts and aggressiveness may vary by skin tone and why clinician experience matters for safe, effective outcomes.

Skin-safety checklist:

  1. Determine Fitzpatrick skin type during consult.
  2. Prefer 1064nm where melanin competition is a concern.
  3. Stage treatments and use conservative energy escalation to monitor response.

This approach balances efficacy and safety across diverse patient skin types while preserving the best chance for favorable cosmetic results.

How Does Original You’s Enlighten III Laser Improve Color Tattoo Removal in Las Vegas?

Original You is a physician-led advanced laser clinic in the greater Las Vegas Valley that brings a technology-forward approach to colored tattoo removal using the Enlighten III picosecond laser. The Enlighten III’s multi-wavelength capability and dual pulse durations extend effective targeting across a wide range of pigments, which can reduce total sessions and improve clearance for stubborn hues such as green and blue. As a locally unique option—being the first practice in Nevada offering this platform—Original You combines device advantages with physician-led care, optional DeScribe PFD Patch use for comfort and multiple passes, and a 10-Treatment Guarantee to provide financial predictability for multi-session courses.

What Makes Original You’s Laser Tattoo Removal Unique for Colored Ink?

Original You’s offering pairs the Enlighten III’s multi-wavelength, picosecond performance with a physician-led treatment model that emphasizes safety and individualized parameter selection for each color and skin tone. This combination supports nuanced strategies—such as wavelength sequencing and selective pulse-duration choices—that improve outcomes for colors that historically required many sessions. The clinic’s optional DeScribe PFD Patch further enhances the ability to perform multiple passes with less discomfort, enabling more efficient treatment of complex, multi-color tattoos while maintaining a conservative safety posture.

How Does the 10-Treatment Guarantee Support Patients Removing Colored Tattoos?

A 10-Treatment Guarantee provides patients with clearer financial expectations when pursuing multi-session color removal plans by outlining a predictable framework for treatment coverage and progress evaluation across a defined number of sessions. For colored tattoos that often require several visits to reach meaningful fade, this guarantee helps reduce unpredictability and supports patients planning time and budget for treatment. During consultations, clinic staff explain how the guarantee applies to individual plans and which adjuncts—such as PFD patches or wavelength sequencing—are recommended to maximize the value of the guaranteed sessions.

What Are the Scheduling and Payment Options for Color Tattoo Removal?

Original You offers flexible scheduling that accommodates weekend appointments and a range of convenient times to fit patient needs, paired with multiple payment options that include no-interest and no-credit-check plans to make multi-session programs more accessible. This accessibility reduces friction for patients who need repeated visits for multi-color tattoos and supports adherence to treatment schedules that improve final outcomes. Prospective patients are encouraged to inquire about available financing and appointment availability when they schedule a consultation.

Where Can I See Results of Laser Tattoo Removal by Ink Color?

Evaluating real-world before-and-after cases organized by ink color and skin tone is one of the best ways to set realistic expectations and choose an appropriate treatment path, since photographs reveal how specific pigments respond under similar clinical conditions. Clinics that categorize galleries by color, list the laser used, note the number of sessions, and indicate skin type provide especially useful evidence for prospective patients. When reviewing images, look for consistent photographic lighting and captions that state sessions and devices so you can compare apples-to-apples and better predict your own possible course.

Are There Before and After Photos of Removing Difficult Ink Colors?

Many practices curate galleries that show representative cases for difficult colors such as green, blue, and white/pastel tattoos, often including captions that list the number of sessions, the laser platform, and any adjuncts used; these case photographs help patients visualize realistic fading and the need for staged planning. Viewing color-specific galleries can reveal the pace of fading and typical endpoints—full clearance versus fade for cover-up—and clinicians should discuss where a patient’s tattoo may fall on that spectrum during consults. Reliable galleries paired with in-person evaluation create the best foundation for individualized estimates.

What Do Patients Say About Removing Stubborn Tattoo Colors?

Patient experiences typically emphasize the importance of realistic expectations, the benefit of advanced laser platforms for reducing sessions, and the value of comfort-enhancing adjuncts during multi-pass treatments; representative quotes often note progressive fading across multiple visits and improved tolerance with patches or numbing. While individual testimonials vary, aggregated feedback that ties results to color-specific cases and technology used is most helpful for prospective patients evaluating whether to pursue removal or cover-up. Discussing peers’ experiences alongside technical explanations gives a fuller picture of likely outcomes.

How Can I Schedule a Consultation to Discuss My Tattoo Colors?

To evaluate removal prospects, prepare photos of your tattoo in good lighting, note any history of touch-ups or ink origin if known, and be ready to discuss skin type and your clearance goals; a consult will assess pigment colors, depth, and skin considerations to provide an individualized plan and session estimate. Original You schedules consultations at its Las Vegas clinic and offers flexible appointment times—including weekends—with payment plan options that may ease planning for multi-session care. For local patients, a direct call to the clinic’s contact number can initiate scheduling and answer financing questions.

  1. Prepare: Bring clear photos and a summary of your tattoo history.
  2. Consult: Expect a color-by-color assessment and an individualized session estimate.
  3. Plan: Review financing and scheduling options that fit your timeline.
Entity (Ink Color)Attribute (Removal Difficulty)Value (Recommended Wavelength(s) & Notes)
BlackLow1064nm; fewest sessions; broad absorption
Red / OrangeModerate532nm or 670nm-range; variable chemistry
Blue / GreenHigh-moderateVisible-range wavelengths; picosecond preferred
White / Yellow / PastelsHighPoor absorption; treat conservatively; fading more likely

This final EAV table offers a concise reference tying colors to difficulty and recommended laser targeting approaches to support consultation discussions and treatment planning.