Laser Development Department

Laser Development Department

  • FOCUS TOPICS

  • Development of diode-pumped solid-state and fiber lasers

  • Robust beam sources for space, deep sea
    and for the detection of gravitational waves

  • Fiber components

Latest News

Profile

The Laser Development Department focuses on the design, construction and characterization of diode-pumped solid-state and fiber lasers. Beam sources and fiber components for highly specialized applications and for industry are important research and development fields.

These include research missions in space: LZH lasers will be flying to the Mars soon and withstand harsh environmental conditions. Moreover, the lasers of the LZH scientists are used to detect gravitational waves or to explore the deep sea.

The work areas of the department range from industry-oriented applications to fundamental research.

Projects

  • FireOn - Fan-like periodically-oriented GaAs in tunable MIR laser beam sources for spectroscopy at the nano and micro scale; sub-project: pico second pulsed Holmium-doped fiber laser system
  • Mars Organic Molecule Analyzer – (MOMA II) – laser system. Subproject: research and implementation of the laser head flight model, and support of the integration and verification in the MOMA instrument
  • Novel ultrashort pulse laser sources at 2 µm with single-stage conversion in the MIR range (NUKLEUS) – subproject: Investigation of the fundamentals of 2 µm USP linear amplifiers and non-linear frequency conversion of these beam sources in the MIR range
  • OPUMAC - Optical pulse bursts for the micro-material processing of metals and ceramics; sub-project: High-energy femtosecond pulses in Yb-doped fiber amplifiers with customized active and passive components
  • POFILASE - Polarization-preserving 2 µm high-power fiber laser with high brilliance for industrial applications; sub-project: numerical and experimental optimization of a thulium-doped high-power fiber laser and fiber components
  • The next generation of non-linear crystals for UV lasers (NexUV); subproject: characterization and optimization of an innovative process for improving non-linear crystals