SUPER WAVE Corporation (hereafter referred to as the Company) was established in 2018 and is located in the
Beijing Economic-Technological Development Area. As a specialized manufacturer of ultra-short pulse lasers
and related products, it was certified as a National High-tech Enterprise in 2020 and selected as a
"Specialized, High-tech, and New" SME in Beijing in 2021.
Since its establishment, the Company has been dedicated to providing high-quality ultra-short pulse lasers to
the global micro-nano processing field, aiming to become a top-class, renowned enterprise in the laser
industry domestically and internationally. The ultra-short pulse lasers developed by the Company are
primarily used in industrial ultra-precision machining, offering dozens of products across picosecond and
femtosecond series. Additionally, it supports customization to meet user needs.
The Company has a research and development team with over 10 years of experience in optics, mechanics,
electronics, and control, providing a strong foundation for delivering value to users. With a Class 1000
cleanroom spanning over 2000 square meters, the core technical team has the experience and capacity to
produce 1,000 units (sets) of various lasers annually.
Moreover, the Company maintains a customer-centric approach, consistently delivering high-quality products
and first-rate services.
Moving forward, it will continue to build a win-win ecosystem with users, suppliers, partners, and research
institutions, striving for technological advancement and industrial development.
Picosecond Lasers
A pulse width of one trillionth of a second (10-12 seconds) is suitable for high-precision
microfabrication. It excels in processing heat-sensitive materials and is used for processing polymers and
ceramics. Applications include microfabrication, thin-film patterning, and cosmetic medicine (such as spot
removal).
IR Lasers
In precise laser processing of transparent materials, a femtosecond laser, which causes microscopic
non-thermal ablation, is typically irradiated at high repetition rates at the threshold where thermal
buildup occurs on the workpiece side.
Furthermore, picosecond lasers with pulse widths and energies optimized for maximizing ablation without
generating debris or cracks have been developed to achieve high-throughput with high-energy and
high-frequency oscillation.
For precision laser processing of colored materials that absorb in the visible and ultraviolet regions, pulse
laser irradiation using second harmonics (532 nm, 515 nm) and third harmonics (355 nm, 343 nm) with
nonlinear optical crystals is effective. By optimizing the wavelength, energy, pulse width, and
irradiation method (such as burst irradiation or POD pulse-on-demand) based on the material's absorption
rate and residual heat dissipation time, maximum throughput can be achieved.
Femtosecond lasers, with a pulse width of one quadrillionth of a second (10-15 seconds), cause
minimal thermal effects on materials, allowing for more precise processing. Due to their shorter pulse width
compared to picosecond lasers, they enable higher precision machining but tend to be more expensive.
Applications include high-precision microfabrication, precise surgeries in the medical field, and scientific
research.
IR Lasers
In precise laser processing of transparent materials, a femtosecond laser, which causes microscopic
non-thermal ablation, is typically irradiated at high repetition rates at the threshold where thermal
buildup occurs on the workpiece side.
Furthermore, picosecond lasers with pulse widths and energies optimized for maximizing ablation without
generating debris or cracks have been developed to achieve high-throughput with high-energy and
high-frequency oscillation.
For precision laser processing of colored materials that absorb in the visible and ultraviolet regions, pulse
laser irradiation using second harmonics (532 nm, 515 nm) and third harmonics (355 nm, 343 nm) with
nonlinear optical crystals is effective. By optimizing the wavelength, energy, pulse width, and
irradiation method (such as burst irradiation or POD pulse-on-demand) based on the material's absorption
rate and residual heat dissipation time, maximum throughput can be achieved.
High repetition rate (~1.0 MHz) with average power ≧50 W for improves throughput.
High peak energy of ≦500 fs, 50 uJ/pulse induces nonlinear effects.
Pulse-on-demand allows for adjustment for each process.
Applicable materials: High brittle material (sapphire, glass, ceramic, silicon), Metal oxides (iron
oxide (Fe2O3), sodium oxide (Na2O)), Semiconducting material
Application scenarios: Creation of diffraction gratings, Cutting and repairing of OLED, Peeling of
polyimide film, Cutting of polarizing plates