Aesthetic laser treatments work best when each device is matched to a specific skin concern rather than sold as a one-size-fits-all box. This full menu guide maps the main concerns clinics see every day (unwanted hair, pigment, facial veins, scars, wrinkles and ageing skin) to the technology and Pmise platform that handles each one, so buyers can build a treatment menu around real demand instead of guesswork.
The logic behind every mapping is simple: a laser or light source only does useful work when its wavelength is absorbed by the intended target in the skin. Get that pairing right and you get a clean result. Get it wrong and you get pain, downtime and disappointed patients. Use the table below as your quick reference, then read each section for the reasoning and the device details.
The quick answer: a concern-to-device map
Most clinics can cover the bulk of everyday requests with four core technologies. The table pairs each concern group with its best-matched light technology and the Pmise platform built for that job.
| Skin concern | Best-matched technology | Why it works | Pmise platform |
|---|---|---|---|
| Unwanted hair (face and body) | 808nm diode laser | The wavelength penetrates to the follicle and is absorbed by melanin in the hair root | Pmise-808CH |
| Pigment: freckles, age spots, nevus of Ota, tattoos | Q-switched Nd:YAG (1064nm and 532nm) | Nanosecond pulses shatter pigment particles so the body can clear them | Pmise-MV8 |
| Vascular: spider veins, telangiectasia, cherry angioma | High-frequency thermo-coagulation | Controlled heat coagulates hemoglobin and seals the small vessel | Pmise-SY08 |
| Scars, wrinkles, texture, laxity | Fractional CO2 (10600nm) | Microcolumns of ablation trigger collagen renewal and resurfacing | Pmise-10600AH |
A clinic that stocks these four can address a large share of walk-in demand. The sections below explain the science so you can defend the mapping to a skeptical buyer or a new operator.
How do lasers actually match a skin concern?
Lasers treat skin by selective absorption, not by heating everything in their path. Skin has three main light-absorbing targets, called chromophores: melanin, hemoglobin and water. Each absorbs different wavelengths, which is why one machine cannot do every job well. This principle traces back to the theory of selective photothermolysis described by Anderson and Parrish in Science in 1983, still the foundation of aesthetic laser design.
According to the Pmise light-tissue interaction training material, the 600 to 1200nm band is the skin optical window where light travels deeper before scattering, while shorter wavelengths are absorbed nearer the surface. That single fact explains most of the map above: hair follicles sit deep, so a deeper-penetrating near-infrared wavelength suits them, whereas surface pigment responds to shorter, strongly absorbed pulses.
Choose the wavelength for the target, then choose the pulse behaviour for the target size. A concern is only treatable when both line up.
Which laser removes unwanted hair?
For hair removal, an 808nm diode laser is the workhorse. The 808nm wavelength penetrates deep enough to reach the follicle and is absorbed by melanin in the hair root, heating and disabling it while adjustable settings protect the surrounding skin. The U.S. Food and Drug Administration notes that long-term hair reduction relies on wavelengths absorbed by the pigment in the follicle, which is exactly why diode systems dominate this category.
The Pmise-808CH is built around this principle. According to the Pmise diode hair-removal material, the platform offers an adjustable pulse width and energy density so operators can tune treatment for different Fitzpatrick skin types, and a contact cooling handpiece keeps the epidermis comfortable during a session. Points buyers should check:
- Adjustable pulse width so darker skin types can be treated at safer, longer durations.
- A cooled handpiece for comfort and epidermal protection during repeated passes.
- A spot size large enough to cover the body efficiently without excessive session time.
Hair removal is a course of treatments, not a single visit, because only follicles in the active growth phase respond well to any given session. Set that expectation with patients up front. For a deeper comparison of hair-removal wavelengths, see our guide on diode vs alexandrite vs Nd:YAG for hair removal.
What treats pigment, spots and tattoos?
Pigmented lesions and tattoos are the domain of the Q-switched Nd:YAG laser. It emits at 1064nm and 532nm and fires extremely short nanosecond pulses that break pigment into fragments small enough for the body to carry away, a photoacoustic effect rather than a burn. According to the Pmise Q-switched Nd:YAG series material, the 1064nm output targets deeper and darker pigment while the frequency-doubled 532nm output addresses shallower red and brown lesions.
The Pmise-MV8 is the Q-switched Nd:YAG platform in this menu. The technology class is defined by its dual wavelengths and its very short pulse duration, which concentrates energy in time so pigment is fractured before heat spreads to nearby tissue. Typical indications for this device class, per the Pmise material, include:
- Endogenous pigment such as nevus of Ota, freckles and other benign spots.
- Exogenous pigment such as tattoos and traumatic pigment.
- Cautious, low-energy protocols for melasma, which is prone to rebound and needs conservative settings.
Melasma deserves a warning: it is a stubborn, relapse-prone condition and aggressive settings can worsen it. Clinical guidance from dermatology bodies favours conservative, multi-session approaches. Read our dedicated melasma laser treatment article before you build a protocol.
How are facial veins and vascular lesions treated?
Small facial veins, telangiectasia and cherry angiomas respond to controlled heat that coagulates the blood inside the vessel and seals it. The Pmise-SY08 uses high-frequency energy delivered through a very fine tip for this purpose. According to the Pmise vascular-system material, the fine treatment tip is around 0.01mm in diameter so it targets the vessel with minimal disturbance to the surface, and treated vessels are coagulated so the tissue clears over the following days.
This precise, point-by-point approach suits the fine surface vessels that a broad-beam laser can struggle to isolate. It complements rather than replaces a laser: larger or deeper vascular lesions are often better matched to a long-pulsed Nd:YAG. For a fuller picture of the laser side, see vascular conditions and the Nd:YAG laser. Whichever route you choose, vascular work rewards a steady hand and conservative energy so you avoid marks on the skin surface.
What resurfaces scars, wrinkles and ageing skin?
Texture problems (acne scars, surgical and traumatic scars, wrinkles, enlarged pores and general laxity) are the job of a fractional CO2 laser. At 10600nm the beam is absorbed by water in the skin, so it ablates precise microcolumns of tissue and leaves surrounding skin intact to speed healing and drive collagen renewal. The Pmise-10600AH delivers this at 10600nm with three output modes (continuous, ultrapulse and fractional), according to the Pmise CO2 series material, which lets one platform move from light resurfacing to more focused ablative work.
Reported indications for this device class in the Pmise material include wrinkles, stretch marks, atrophic and surgical scars, enlarged pores and skin that has lost firmness. Because CO2 resurfacing removes tissue, it carries real downtime and demands proper aftercare and sun avoidance. Points to weigh:
- Match density and depth to the concern; scars need more aggressive settings than a light refresh.
- Plan for visible healing time and counsel patients on redness and crusting.
- Reserve ablative resurfacing for operators trained in downtime management and infection control.
For scar work specifically, our acne scar removal with fractional laser guide covers protocol choices in more depth.
How to build a treatment menu for your clinic
Buy for the concerns your local market actually asks for, not for the longest spec sheet. A practical way to shortlist platforms:
- List the top five requests you already turn away or refer out, then map each to the table above.
- Prioritise the concern with the highest repeat-visit potential; hair removal and pigment both bring patients back.
- Confirm the regulatory path for your market. The FDA and equivalent bodies treat these as regulated medical devices, so clearance and operator training matter.
- Check consumables, handpiece life and service support, because uptime decides real return, not the brochure.
Start with one or two platforms that cover your busiest concerns, prove the demand, then expand. Browse the full range on our products page and see condition-by-condition protocols under solutions. If you want help matching devices to your patient mix, our team can walk through the map with you.
Frequently Asked Questions
Can one laser machine treat every skin concern?
No single machine treats every concern well, because each target in the skin absorbs different wavelengths. Melanin, hemoglobin and water each respond to different light, so hair, pigment, veins and scars need different technologies. Multi-application platforms exist, but for demanding work most clinics still combine a diode, a Q-switched Nd:YAG, a vascular device and a fractional CO2 laser.
How many sessions do aesthetic laser treatments usually take?
Most concerns need a course rather than a single visit. Hair removal works only on follicles in an active growth phase, so several spaced sessions are standard. Pigment and scar treatments also typically improve over multiple sessions. The exact number varies by lesion, skin type and device settings, so avoid promising a fixed count and set expectations honestly with each patient.
Are these treatments safe for darker skin types?
They can be, with the right device and settings. Longer wavelengths such as 1064nm and adjustable, longer pulse durations are generally safer for darker Fitzpatrick types because they reduce unwanted absorption in the epidermis. Careful test spots, conservative energy and proper cooling all lower the risk of burns or pigment change. Operator training is as important as the machine itself.
What matters most when buying an aesthetic laser?
Match the device to real patient demand, confirm it is properly regulated for your market, and check the total cost of ownership: consumables, handpiece lifespan, service and training. A platform that sits idle because it does not fit local demand is expensive no matter how low the sticker price. Buy for the concerns you can fill week after week.
Pmise Technical Team. Pmise manufactures laser and light-based aesthetic equipment and supports foreign-trade buyers with device selection, training and after-sales service.
