3D-Micromac

Layout of Schott RealView eyepieces on a high refractive index wafer following laser cutting with a 3D-Micromac laser micromachining system. (Image: 3D-Micromac)

3D-Micromac & Schott to develop manufacturing solutions for AR optics

The partnership will enable 3D-Micromac to develop new process solutions that can improve the bending strength of high refractive index glass

Integrators such as GFH Micromachining, 3D Micromac, and LLT Applikation develop complete laser micromachining systems featuring all the laser, motion control, software, and safety components required to realise high-quality applications (Image: GFH Micromachining)

Micromachining systems adapt to market demands

Susan Fourtane on the market trends integrators are having to respond to when developing new systems

Comparison of half-cell cutting edges using two different approaches. Left: a laser-processed edge with subsequent breaking method. Right: the 3D-Micromac TLS method demonstrating exceptional edge quality.

3D-Micromac introduces new laser system for half- and shingled-cell cutting in photovoltaic manufacturing

The microCELL has been designed to meet the PV market's demands for boosting module power output and service life by minimising power losses and providing for an exceptionally high mechanical strength of cut cells

Optimized Laser Cutting Processes and System Solutions for Separation of Ultra-Thin Glass for OLED Lighting and Display Applications

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For some years now, laser cutting processes based on filament technology with ultra-short pulse (USP) lasers have been increasingly adopted in industrial applications.

The main reasons for this are the good edge quality that can be achieved with simultaneous easy automation and free-form capability. This ability to be automated is of critical importance, especially for applications that target the mass market with their end products.

However, the real advantage of the technology comes from its almost unlimited free-form capability. In addition to established manufacturing processes for glasses of medium thickness from 0.2-2 mm, an increasing number of applications with ultra-thin glasses of 30-100μm are entering the market. These applications also require further development of the process and fab technology.

This article describes the possibilities of laser technology based on applications for OLED-based lighting and glass components in the display area.

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