Overview This master’s program explores the science and technology of light — photonics — and its practical uses across research and industry. Photonics covers the generation, shaping, transmission and detection of light and underpins key areas such as optical processes, image and data transmission, optical information and communication technologies, and laser systems. As an interdisciplinary, innovation-driven field, it combines physics, engineering and applied research to develop new optical solutions.
Core application areas and relevance Modern photonics spans several application domains, including laser and light–material interaction, industrial manufacturing, illumination and display technologies, and biophotonics within the life sciences. Beyond the particle nature of photons, the field embraces all practical optical applications: creating, transporting and processing optical signals. Photonic techniques are used across many sectors, and the intersection of medical problems with photonic technologies is highlighted as having substantial commercial potential.
Who the programme is for and outcomes The programme is designed for graduates who want in-depth knowledge of advanced photonic technologies as well as for professionals holding a Bachelor’s degree who wish to raise their occupational qualification while continuing to work. It also prepares students aiming for doctoral study; graduates can pursue research opportunities and may be accepted into the university’s photonics research centre (Center for Optical Technologies). With a Master of Science in Applied Photonics, alumni are equipped for leading roles in research and development within industry as well as for academic/scientific careers.
Entry requirements and key points
This Master's programme runs over three semesters: the first two are dedicated to taught courses and laboratory work, while the final semester is reserved exclusively for your Master's thesis. The structure combines classroom-based instruction with intensive practical laboratory sessions to ensure both conceptual understanding and hands‑on experience.
During the taught semesters you will engage with a series of lecture and lab modules that build from foundational concepts to more advanced, application‑oriented topics. The laboratory component is a core feature, designed to develop experimental technique, data acquisition and analysis skills, and familiarity with photonics equipment and measurement protocols. Seminars and project‑style coursework are typically used to connect theory with practical problem solving.
The thesis semester gives you concentrated time to carry out an independent research or development project under supervision, culminating in a written dissertation and often an oral presentation. By the end of the programme you should be able to design and execute experiments, interpret and communicate technical results, and apply photonics methods to research or industrial challenges.
Key points / requirements
Applicants should hold a strong undergraduate degree in physics or a closely related engineering discipline. The program expects evidence of solid academic preparation in subjects relevant to photonics and applied physics, so your Bachelor's studies should have provided a firm grounding in these areas.
For international applicants, admission typically requires that your qualification be comparable to a German Bachelor's degree and demonstrate a high academic standard. If your diploma title differs from the examples below, the admissions committee will assess whether your prior coursework and grades meet the program’s expectations.
Winter Semester (International)
15 March 2026
Summer Semester (International)
15 September 2026
Winter Semester (EU/EEA)
15 March 2026
Summer Semester (EU/EEA)
15 September 2026
Graduates are prepared for leading positions in research and development across industry sectors that use optical technologies — for example optical communications, laser systems, medical photonics, sensor and imaging industries, and advanced manufacturing. The combination of applied laboratory experience and project work also makes them attractive candidates for R&D teams in high‑tech companies.
The programme also prepares students for academic careers: the research‑oriented structure and close ties to the university’s photonics research centre create a clear pathway for candidates wishing to pursue a PhD or continue in scientific research.
Friedrich Schiller University Jena — Jena
University of Göttingen — Göttingen
Technical University of Munich — München
Johannes Gutenberg University Mainz — Mainz