Ultrafast laser drilling enables the production of high-density vias in glass substrates for advanced packaging, RF devices and photonic integration. The process provides excellent control of diameter, roundness, taper and aspect ratio, supporting reliable metallization, improved electrical performance and high manufacturing yield.

Laser dicing and singulation provide precise separation of semiconductor devices with minimal chipping, particle generation and mechanical stress. Compared with conventional methods, laser processing is particularly well suited for thin wafers, fragile materials and advanced photonic devices where edge quality is critical.

Laser sample preparation enables rapid access to buried structures, defects and regions of interest within semiconductor devices and packages. By removing large volumes of material quickly, preparation times can be reduced dramatically before detailed investigation using SEM, FIB, nanoprobing or other analytical techniques.

Laser cross-sectioning provides fast exposure of interfaces, multilayer structures and buried features in semiconductors, electronic packages and printed circuit boards. Combined with broad ion beam polishing or other finishing techniques, it produces high-quality surfaces suitable for microscopy, metrology and microanalysis.

Ultrafast laser processing supports the fabrication, modification and separation of waveguides, optical substrates and photonic components. The combination of high precision, excellent edge quality and minimal thermal impact helps preserve optical performance while enabling efficient manufacturing of advanced photonic devices.

Laser micromachining plays an increasingly important role in advanced semiconductor packaging, supporting applications such as via formation, substrate processing, singulation and access to buried interconnects. The technology enables flexible manufacturing workflows for heterogeneous integration, glass interposers and next-generation electronic and photonic systems.