OEM Picosecond Laser Tattoo Removal Pico Laser Suppliers & Companies

Industrial-Grade Aesthetic Laser OEM/ODM Solutions & Component Manufacturing

Xi'an Prima Beauty Equipment Co., Ltd. Manufacturing Facility

Company Profile

Xi'an Prima Beauty Equipment Co., Ltd. is a globally recognized pioneer in the aesthetic energy-based device market. With over 10 years of experience in manufacturing laser beauty systems, we stand as a leading aesthetic laser technology factory. We specialize in the end-to-end research, development, and vertical production of advanced optoelectronic laser technology.

Prima Beauty Laser integrates the design and fabrication of diode lasers and solid-state lasers under one roof, providing a wide array of premium aesthetic devices including diode hair removal systems, CO2 fractional lasers, Q-Switched/Pico Nd:YAG laser systems, and IPL technologies. Our vertical integration allows us to design high-power laser chips and pack robust diode stacks that empower the next generation of picosecond laser technologies globally.

Why Choose Xi'an Prima Beauty

We deliver industry-leading manufacturing, ongoing support, and high-performance engineering.

Advanced Opto-Engine Tech

As a mid-to-high-end optical manufacturer, we integrate laser chip packaging, diode stack array coupling, and electrical-optical module housing. This ensures unparalleled pulse stability and long-term peak performance for cosmetic applications.

Unwavering Quality Control

Every laser engine and diode array undergoes dynamic burn-in and optical-to-electrical inspection inside class 10,000 cleanrooms. We customize custom parameters for global distributors, verifying spot profile symmetry and pulse duration.

Flexible OEM/ODM Models

We provide full-spectrum engineering services to develop customized device chassis, software interfaces, parameter presets, and handpieces. Elevate your brand with high-performance solid-state laser technology.

Semantic Deep-Dive: Picosecond vs. Traditional Q-Switched Lasers

Understanding the photomechanical physics behind tattoo pigment fragmentation and targeted dermal treatments.

The Physics of Ultra-Short Pulse Durations

In dermatological laser therapies, pulse width (duration) is the critical factor that dictates treatment safety and efficacy. Traditional Q-switched lasers operate in the nanosecond range (10-9 seconds), relying primarily on photothermal action. This process heats the pigment target, which can cause thermal diffusion to surrounding healthy tissue, increasing the risk of hyperpigmentation (PIH) and thermal damage.

Picosecond lasers deliver energy in picoseconds (10-12 seconds). This ultra-fast delivery creates a massive photomechanical shockwave within the pigment particle before any heat can escape. The pigment is shattered into micro-particles, which are easily cleared by the lymphatic system, minimizing thermal damage to the surrounding skin.

Pumping Technologies: Diode Stacks & Solid State Cores

A true picosecond system requires a highly stable pumping source. While legacy systems rely on unstable flashlamps, modern high-end picosecond systems use Diode-Pumped Solid-State (DPSS) technology. This is where our industry-leading diode stacks come into play.

Our high-power, multi-wavelength diode arrays (300W to 4800W) provide a stable, efficient pump source for solid-state crystals (like Nd:YAG or Alexandrite). This guarantees stable pulse emission, reduced thermal stress, and extends the laser generator's lifetime to millions of shots.

Performance Metrics Legacy Nanosecond Lasers DPSS Picosecond Lasers (Modern) Clinical Advantages
Pulse Duration 5 - 20 ns 350 - 750 ps Ultra-short duration mitigates thermal diffusion
Primary Tissue Action Photothermal (Heat-based) Photomechanical (Pressure-based) Finer pigment fragmentation, faster lymphatic clearance
Pigment Particle Size Post-Op Granule particles Micro-dust dust particles Fewer sessions required for complete tattoo clearance
Heat Accumulation (Risk) Moderate to High (PIH Risk) Extremely Low Safe for Fitzpatrick skin types IV-VI
Peak Power Capacity Moderate (Megawatt Range) High (Gigawatt Range) Effective for recalcitrant green/blue inks

Localized Application Scenarios

How distributors and medical clinics utilize picosecond laser configurations in local markets.

Dermatology & Medical Aesthetics

Medical spas and dermatology clinics utilize the 1064nm and 532nm wavelengths for precise epidermal and dermal pigment clearance, including melasma, nevus of Ota, and age spots, with minimal downtime.

Tattoo Clearance Centers

Specialized tattoo removal studios leverage the photomechanical pressure waves of the 755nm Alexandrite wavelength to target stubborn black, green, and blue tattoo inks, reducing the total treatment course by 50%.

Non-Invasive Skin Rejuvenation

Using specialized micro-lens arrays (MLA) or diffractive lens arrays, picosecond handpieces create Laser-Induced Optical Breakdown (LIOB) in the dermis, stimulating collagen synthesis to treat acne scars and fine lines.

Technological Roadmap & Future Outlook

How our R&D is shaping the future of energy-based aesthetic devices.

Phase 1: Pulse Width Compression

Below 300 Picoseconds

Developing laser cavities capable of compressing pulse widths down to 250ps. This further reduces the risk of photothermal damage and maximizes treatment efficacy on highly reflective color pigments.

Phase 2: Multi-Wavelength Solid-State Arrays

Quad-Wavelength Integration

Integrating 532nm, 755nm, 1064nm, and 585nm/650nm dye handpieces into a single, compact laser platform, allowing practitioners to treat a wider range of ink colors and skin types with one machine.

Phase 3: Smart AI Energy Self-Calibration

AI Closed-Loop Biofeedback

Developing AI-powered optical sensors in the handpiece to monitor real-time backscattered light, automatically adjusting energy output to maintain optimal efficacy and safety for patients.

China Factory Supply Chain Resilience & Efficiency

Our facility in Xi'an, China, offers significant supply chain advantages. We manage all key production phases under one roof—from raw laser chip submount packaging and gold-tin soldering of diode bars to micro-optics alignment and final system housing.

This vertical integration insulates our production from external supply chain disruptions and ensures strict quality control. Over 10 years of manufacturing experience enables us to deliver reliable laser technology, reduce lead times, and offer cost-effective OEM/ODM solutions to global markets.

Key Supply Chain Advantages

  • In-House Diode Bar Packaging: We package raw semiconductor chips into durable vertical laser stacks (up to 4800W).
  • Optical Optimization: Automated gold-tin soldering and micro-channel cooler (MCC) integration for thermal management.
  • Quality Control System: Strict monitoring processes complying with ISO 13485 quality standards.
  • Cost-Effective OEM Solutions: Efficient assembly lines reduce the barrier of entry for international brands.

Qualification & Regulatory Compliance

We maintain rigorous regulatory compliance to ensure global market access and patient safety.

Medical Laser Equipment Qualification Certificate 1
CE Mark Regulatory Certification
Medical Device Manufacturing Compliance Certificate 3
ISO 13485 Quality System Certification

Global Standards, Local Support

Ensuring seamless compliance, training, and technical support across international borders.

Regulatory Clearance

We supply devices and core laser engines complying with CE directives, ISO 13485 quality standards, and local FDA pathways, helping you register products quickly in your local market.

Technical Support

Our engineers provide global technical assistance, component diagnostics, and spare parts supply. We offer remote video calibration, troubleshooting, and replacement parts for laser handles.

Clinical Training Portals

We provide comprehensive educational manuals, parameter guides for Fitzpatrick skin typing, and clinical protocol courses to help distributors and medical spas operate devices safely and effectively.

Frequently Asked Questions

Technical and commercial answers for aesthetic laser distributors and OEM/ODM buyers.

What is the difference between a real picosecond laser and a simulated one?
A real picosecond laser operates with a pulse width of less than 1 nanosecond (usually between 350ps and 750ps) to generate photomechanical fragmentation of pigments. Simulated or "short-pulse nanosecond" systems run on pulse durations exceeding 2ns, relying more on photothermal energy, which increases skin irritation and requires more treatment sessions.
How do high-power diode stacks support solid-state picosecond lasers?
High-power diode stacks (ranging from 300W to 4800W) serve as the pump source for solid-state picosecond lasers. They provide the optical pump energy to excite active media (like Nd:YAG or Alexandrite crystals), enabling stable, ultra-short pulses and maintaining consistent peak power during treatment.
Which wavelengths are used for picosecond tattoo removal and skin treatments?
The most common wavelengths are 1064nm (for dark black and blue inks, and deep dermal lesions) and 532nm (for red, orange, and warm pigment tones). The 755nm wavelength is used to target stubborn green and blue pigments, and is also effective for skin rejuvenation via micro-lens arrays.
Can you customize the machine casing, interface, and hardware parameters?
Yes. We offer comprehensive OEM/ODM services, including custom machine casing, color themes, software interfaces, software presets, and tailored laser power configurations (e.g., custom diode stacks) to fit your brand identity and market requirements.
What is the typical lifespan of a diode-pumped laser stack?
Our premium laser diode stacks are designed for long-term reliability, providing up to 20 to 30 million shots when operated under recommended temperature and water-flow conditions, significantly reducing maintenance costs compared to legacy flashlamps.