Applications

A femtosecond laser-based scribing procedure has been demonstrated for cleaving silica optical fiber.

A femtosecond laser is a powerful tool for localized material ablation with high processing accuracy and cleanliness.

Laser-drilled glass biopsy probes diameter can vary from 12 µm to more than 20 µm, and the biopsy ports vary in diameter from 5 µm to more than 10 µm.

Bursts of femtosecond laser pulses enable polishing of bio-compatible hydrophilic acrylic polymer surfaces to roughness value of less than 50 nm.

Femtosecond lasers enable moth-eye AR structures on silicon capable of suppressing reflection losses in the range of 0.3 to 2.5 THz, resulting in a maximum transmission of 91%.

Femtosecond laser writing enables vacancy-related color centers writing in silicon carbide and gallium nitride, relevant for applications in quantum technologies.

Various applications, from consumer electronics to medical tools manufacturing, use stainless steel. Femtosecond lasers can polish numerous types of stainless steel.

Femtosecond lasers are the most common choice for stent manufacturers. Equipped with a harmonics module one can be used for processing both metallic and plastic stents.

High precision laser cutting involves the development and production of parts for multiple industries such as: watches, jewelry, consumer electronics, and more.

Processing tempered or non-tempered, flexible, or thick glass, with high precision, can be a challenging task. Lasers offer another degree of freedom to improve process speed and quality.  

Numerous applications use drilled glass. It can be met in customer electronics, medical, automotive, aerospace, and many other industries. 

Milling complex 3D structures into various metals with high accuracy and efficiency is no longer a challenge by equipping our femtosecond lasers.

Femtosecond lasers offer improved quality to high contrast marking, medical instrument marking, hidden marking, counterfeit marking on glass, plastic, metals, and ceramics.