A New Solution for High-Throughput Laser Micromachining
If you have any questions about laser processing, such as "I want to process this material," "Can you customize it?" or "Which laser should I choose?" Please consult with Shibuya Optical.
SUPER WAVE Co., Ltd. was founded in 2018 and is located in the Beijing Economic-Technological Development Area.
We are a specialized manufacturer of ultra-short pulse lasers and related products. In 2020, we were certified as a National High-Tech Enterprise, and in 2021, we were selected as a "Specialized and New" SME in Beijing.
Since our establishment, we have been dedicated to providing top-quality ultra-short pulse lasers for the global micro and nano processing industries, striving to become a world-leading company in the laser sector.
Our ultra-short pulse lasers are primarily used for industrial ultra-precision processing, offering over a dozen product Model Numbers in the picosecond and femtosecond series. We also support customized solutions to meet user requirements.
Our R&D team has over 10 years of experience in optics, mechanics, electronics, and control, ensuring a solid background to deliver value to our customers.
We operate a 2000-square-meter Class 1000 cleanroom, and our core technical team has the capacity and experience to produce 1000 laser units per year.
Maintaining a customer-first philosophy, we continuously provide high-quality products and first-class services.
Moving forward, we will collaborate with users, suppliers, partners, and research institutions to build a win-win ecosystem and promote technological progress and industrial development.
Picosecond Laser Leonis Series
With a Pulse Duration of one trillionth of a second (10-12 seconds), it is suitable for high-precision microfabrication. It excels in processing heat-sensitive materials and is used for machining polymers and ceramics.
Typical applications include microfabrication, thin film patterning, and cosmetic medical treatments such as spot removal.
IR Laser
For precision laser processing of transparent materials, the current trend is to irradiate with femtosecond lasers at high repetition rates close to the thermal accumulation limit on the workpiece side, causing microscopic non-thermal ablation.
In addition, picosecond lasers with Pulse Duration and energy optimized to achieve maximum ablation without generating debris or cracks have been developed for high-energy and high-repetition output, enabling high-throughput processing.
Green Laser / UV Laser
For precision laser processing of colored materials that absorb in the visible or ultraviolet range, pulse lasers with second harmonic generation (532nm, 515nm) and third harmonic generation (355nm, 343nm) using nonlinear optical crystals are effective.
By adjusting the wavelength, energy, Pulse Duration, and irradiation method (burst irradiation, POD pulse-on-demand) according to different absorption rates and thermal relaxation times of the workpiece, maximum throughput can be achieved.
The femtosecond laser has a Pulse Duration of one quadrillionth of a second (10-15 seconds), resulting in extremely minimal thermal effects on materials and enabling more precise processing. Compared to picosecond lasers, femtosecond lasers have shorter Pulse Durations, allowing for higher precision processing, although the cost tends to be higher. Applications include high-precision microprocessing, precision surgeries in the medical field, and scientific research.
IR Laser
For precision laser processing of transparent materials, the trend is to use femtosecond lasers to irradiate at high repetition rates that reach the thermal accumulation limit on the workpiece side, causing micro non-thermal ablation.
Additionally, picosecond lasers with Pulse Durations and energies optimized to maximize ablation without generating debris or cracks have been developed for high-energy and high-repetition operation aimed at high throughput.
Green Laser / UV Laser
For precision laser processing of colored materials that absorb in the visible or UV range, irradiation with second harmonic (532nm, 515nm) or third harmonic (355nm, 343nm) pulse lasers using nonlinear optical crystals is effective.
By adjusting the wavelength, energy, Pulse Duration, and irradiation method (burst irradiation, POD pulse on demand) according to the absorption rate and residual heat relaxation time of the workpiece, maximum throughput can be achieved.