3D-Micromac AG develops and manufactures state of the art laser micromachining workstations for industry, research, and science. These systems are used e.g. in facilities for production of photovoltaic systems, processing of semi- conductors and medical applications. Processes used with laser micromachining are micro drilling, signing, cutting, 2D and 3D structuring, and marking of various materials and thin films.

Solar Cell Processing

Laser micromachining systems for photovoltaic industry.

Medical Applications

Laser micromachining systems for medical technology.

Semiconductor & MEMS

Laser micromachining systems for semiconductor/MEMS fabrication.

Research & Development

Research for new applications of laser micromachining.

Events

25 EUPVSEC 2010, Valencia, Spain
06. September 2010 - 10. September 2010

Conferences

Spie Optics + Photonics Conference, San Diego
01. August 2010 - 05. August 2010

IS&T’s Digital Fabrication 2010
19. September 2010 - 23. September 2010

Experts in the field of laser micromachining meet at ISL 2010 in Chemnitz, Germany for the third time

ISL 2010 - International Symposium on Laser-Micromachining at 3D-Micromac taking place from 27th to 28th Oct. 2010

Following the success of the ISL 2008 – 2nd International Symposium on Laser-Micromachining taken place in Chemnitz, Germany and ISL 2009 Asia held in HongKong, China, we are pleased to announce the ISL 2010 – 3rd International Symposium on Laser-Micromachining which will take place in Chemnitz, Germany on 27th – 28th October, 2010 at Penta Hotel.

3D-Micromac founds new US-distributorship

3D-Micromac AG, the leading supplier of customized laser micro machining systems is represented in the USA by an US distributorship with immediate effect. 3D-Micromac America Corp., based in St. Charles, Missouri, was founded in April 2010. CEO of 3D-Micromac America will be Mr. Nicholas Baer.

3D-Micromac successful introduced a new laser system for welding of metals

Innovative assembling technology for gentle processing of medical instruments and implants

The manufacturing of medical instruments and implants is characterized by smaller and smaller structures as well as the demand for highest precision in terms of surface quality, absence of burr, and materials residues. While established fabrication technologies increasingly face their limits, laser micromachining provides optimum preconditions for the required quality and precision since machining is accomplished in a contactless fashion.