The development of integrated optical assemblies is becoming increasingly important for industry and research, with applications in quantum technology representing a significant area of interest. A compact and robust design of the optical systems is of particular importance in this context, as manual positioning and joining cannot be used due to the high demands on precision when aligning the optical elements. This is why mechanical and automated production methods are increasingly being used. Regarding fiber optic assemblies, the ability to align individual optical fibers and entire fiber arrays with high precision to discrete micro-optics is of crucial importance in the development of photonic integrated circuits (PICs). The fiber optics group conducts research on the production of corresponding fiber optic components for applications in industry and research. As part of your work, you will independently develop and optimize process and production routines for (fiber) optical systems on a commercial pick-and-place system.
Temporary employment in accordance with the “Wissenschaftszeitvertragsgesetz” (German Act on Temporary Scientific Contracts) and remuneration based on the collective agreement for the public service of the states, depending on qualifications and activities up to TV-L ¾ E13. The possibility of a doctorate is given.
Responsabilities:
Use of a commercial pick & place system for handling and assembling miniaturized, optical and, in particular, fiber optic assemblies
Development of automated adjustment and production processes on the system
Characterization and optimization of the manufactured (fiber optic) optical systems
Requirements:
A completed technical Master’s degree with above-average academic performance
Knowledge in the field of optics, fiber optics and laser system technology
Ideally experience in optical assembly and connection technology
Programming skills (Python, Labview, etc.) are advantageous
Reliability, goal orientation, team spirit and sense of responsibility
Salary Range:
Up to TV-L ¾ E13