Engineered high-performance laser assemblies for aesthetic applications, system manufacturing, and handle restoration.
Welcome to Xi’an Prima Beauty Equipment Co., Ltd., your trusted partner in the design, development, and supply of high-performance aesthetic laser systems. Boasting over a decade of vertical expertise, we specialize in high-power semiconductor packaging, solid-state laser resonators, and precision optical assemblies.
Our comprehensive technical capabilities range from the raw micro-packaging of diode laser modules to fully integrated clinical devices. We specialize in producing clinical platforms, including Diode Hair Removal Systems, fractional CO2 platforms, Picosecond systems, IPL devices, and Q-Switched Nd:YAG systems. We provide global OEMs and medical distributors with the technological foundation to lead local markets.
Operating a vertically integrated cleanroom and R&D facility, we control the product lifecycle from initial semiconductor die selection to optical frequency conversion. This ensures that every system leaves our floor calibrated to the tightest industrial tolerance.
Understanding how pulse duration, optical resonance, and target chromophores interact to yield optimal clinical results.
Our advanced active electro-optic Q-switching condenses optical energy into giant pulses of 5–10ns. This rapid emission generates pure photomechanical shockwaves that shatter targeted ink and melanin without thermal damage to surrounding tissue.
By frequency-doubling a 1064nm beam through an optical KTP crystal, we generate a stable 532nm output. This wavelength is highly absorbed by oxyhemoglobin and red/orange pigments, making it excellent for epidermal pigmentation therapies.
Transitioning from flashlamp excitation to solid-state diode-pumped architectures (DPSS) minimizes thermal lens effects. This transition delivers a flat-top beam profile and extends the system life past 20 million pulses.
Why global brands rely on Xi'an Prima Beauty Equipment for scalable medical laser design.
Our engineering team modifies cavity lengths, beam-shaping optics, and handpiece designs to match your mechanical footprints. We also develop multi-wavelength configurations tailored to your clinical protocols.
We perform rigorous burn-in tests on every semiconductor bar and solid-state Nd:YAG rod. Our quality control team measures parameters like energy stability, pulse repeatability, and beam profile asymmetry before shipment.
From custom UI screen designs in multiple languages to complex hardware additions (like active skin cooling sensors), we offer comprehensive support to align the finished system with your brand identity.
Technical reference values for our standard OEM Q-Switched Nd:YAG Laser Modules.
How our advanced manufacturing floor guarantees competitive pricing and consistent product quality.
Operating out of Xi'an, a major Chinese hub for optoelectronics R&D, our facility bridges the gap between raw semiconductor assembly and clinical hardware integration. By packaging our own laser diode arrays and mounting solid-state crystals in-house, we eliminate intermediate supply steps, passing these cost savings directly to our global customers.
Our production floor uses Class 10,000 cleanrooms to mount micro-channel coolers (MCC) and handle sensitive optical coatings. Minimizing dust contamination ensures high optical damage thresholds on our lenses, mirrors, and frequency-doubling KTP crystals. This extends the service life of our systems under demanding clinical workloads.
We work with trusted logistics partners to handle export customs, secure shipping, and provide customs clearance support for key regions like North America, Europe, and the Middle East.
Each ND:YAG rod is aligned inside sealed resonators using clean nitrogen gas to purge moisture and prevent long-term degradation.
Automated test rigs run systems continuously for 72 hours, tracking energy drift, pulse-to-pulse stability, and optical beam quality.
Direct agreements with leading local crystal suppliers and optoelectronic component manufacturers guarantee stable pricing, even during global supply chain fluctuations.
Our product vision and engineering pipeline for next-generation skin-rejuvenation lasers.
Developing ultra-compact active modules that reduce standard pulse widths to less than 2 nanoseconds. This will enhance acoustic fracturing efficiency while reducing the heat applied to surrounding skin.
Integrating real-time reflectance spectrometers inside the handpiece to automatically adjust energy levels based on local skin tone and treatment response.
Moving away from flashlamp-based designs by incorporating custom diode pump arrays that lower maintenance costs and extend the laser head's lifespan.
Designing flexible, multi-jointed fiber optic arms to replace traditional rigid optical arms, making the system easier for clinicians to handle during long procedures.
Every device undergoes testing to meet international safety and performance standards.
Our production workflows align with international quality frameworks like ISO 13485. By adhering to cleanroom air exchange controls, electrostatic discharge (ESD) protection protocols, and optoelectronic alignment checks, we ensure that every batch of lasers performs reliably in diverse medical and clinical settings.
Answers to common technical, manufacturing, and shipping questions for global laser distributors.
Active Q-switching uses an electro-optic modulator (like a Pockels cell) controlled by precision timing circuits. This allows us to achieve much higher peak powers and shorter pulse widths (under 6ns). Passive Q-switching relies on saturable absorbers, which are less expensive but produce lower pulse stability and wider pulse durations. We primarily use active Q-switching for clinical systems to ensure safe and effective pigment clearance.
We use high-grade potassium titanyl phosphate (KTP) crystals to double the frequency of the primary 1064nm beam. The KTP crystal is mounted on a temperature-controlled thermoelectric cooling block (TEC). By keeping the crystal's temperature within a tight range, we minimize phase mismatching and ensure a stable, flicker-free 532nm output.
We offer wide-ranging customization, including structural redesigns of the chassis, customized software user interfaces, variable fiber connection options, and the integration of secondary wavelengths (like 1064nm, 585nm, or 650nm). We also provide custom logo engraving, color matching for plastic fairings, and custom packaging options to help you build a cohesive product brand.
For standard laser modules or parts orders, the typical processing time is 10 to 15 working days. For full system OEM builds that require custom plastics or custom software integration, the timeline ranges from 30 to 45 days. This includes a mandatory 72-hour stress-testing window to ensure reliability.
We support our global partners with video training guides, online direct-to-engineer chats, and modular spare parts packages (including pre-calibrated laser rods, power supplies, and optoelectronic boards). Most issues can be resolved remotely by replacing standard modules, minimizing system downtime for your customers.
Yes. To protect the internal gold cavity plating and prevent mineral buildup on the Nd:YAG rod, we recommend using pure deionized or double-distilled water. The system also includes safety sensors that shut down operation if the water flow rate drops below safe limits.
Explore our range of high-power diode stacks and modules engineered for industrial pumping and aesthetic treatments.
Prima Beauty
