Overview
This Master's programme combines theoretical foundations with hands-on experimental training across contemporary areas of quantum physics. Courses cover quantum optics and quantum matter; laser cooling and quantum gases; laser physics; superconductors and Josephson junctions with their applications; open and many-body quantum systems; mathematical quantum theory; and quantum information theory. The curriculum is designed to give you both conceptual depth and exposure to current research topics in quantum science.
Practical training
A substantial practical component is embedded in dedicated quantum labs where you work with lasers and core elements of quantum optics, investigate superconducting devices, and study photons and photon statistics. These lab experiences aim to develop experimental skills, familiarity with instrumentation and data analysis, and an understanding of how theoretical models connect to measurements.
Flexibility and industry link
You also select modules from a neighbouring field worth at least 6 credit points, allowing interdisciplinary breadth (for example in engineering, computer science or materials-related topics). Alternatively, this requirement can be met by completing an industrial internship, which offers direct exposure to applied research or technology development in industry.
Requirements (concise)
This is a consecutive two‑year master's programme taught in a modular format, with intakes in both the winter and summer semesters (a winter start is recommended). The curriculum is split evenly over two years: the first year is coursework-focused (60 ECTS), while the second year is devoted to research and thesis work (60 ECTS), for a total of 120 ECTS. Full details and up‑to‑date information are available on the programme website.
In the first year students complete lectures, seminars and practical courses that establish core knowledge in both experimental and theoretical quantum optics; these modules form the foundation for the whole cohort and are reinforced by an associated laboratory course. Alongside required modules, a range of elective topics lets students tailor their studies. Training in scientific communication and critical discussion is built into the programme through a journal club (where students present current research topics) and a peer‑learning seminar (small‑group discussions led by students).
The second year centers on independent research within the areas covered by the Center for Quantum Science. Students spend the year developing research‑oriented skills (30 ECTS) and then produce a master’s thesis (30 ECTS). The thesis is completed with an oral scientific presentation of the results. Graduates leave with a solid grounding in quantum optics (theory and experiment), practical lab experience, experience in critiquing and presenting current research, and research skills that prepare them for doctoral studies or research roles in academia and industry.
Requirements (concise)
To be considered for this MSc program you need an undergraduate degree in physics and demonstrated preparation in the core areas of quantum science. The admissions rule specifies a final Bachelor’s grade at least equivalent to a German 2.5; applicants holding degrees from outside Germany will have their grades converted to the German scale during evaluation.
A strong, demonstrable foundation in quantum mechanics, atomic (atom) physics and condensed-matter physics is expected. You should be able to document relevant coursework and, where applicable, laboratory or research experience in these subject areas so the admissions team can assess your readiness for advanced study.
Winter Semester (International)
15 July 2026
Summer Semester (International)
15 January 2027
Winter Semester (EU/EEA)
15 September 2026
Summer Semester (EU/EEA)
15 March 2026
Graduates are prepared for research careers in academia (PhD programmes) and for technical roles in industry sectors developing quantum technologies, photonics, superconducting devices and quantum information systems. The combination of lab skills, theoretical knowledge and research experience also suits positions in R&D teams at high-tech companies and research institutes.
The programme’s emphasis on communication (journal club and peer seminars), practical laboratory competence and a supervised research thesis gives graduates the skills to work on experimental and theoretical projects, to lead or contribute to interdisciplinary teams, and to pursue further specialization in quantum science and technology.
Friedrich Schiller University Jena — Jena
University of Göttingen — Göttingen
Technical University of Munich — München
Johannes Gutenberg University Mainz — Mainz