This two-year Master of Science in Physics is designed to give you a comprehensive education across the full spectrum of modern physics. The curriculum spans theoretical topics—with a particular emphasis on quantum mechanics—through solid-state physics, and includes extensive advanced laboratory work alongside a broad range of contemporary lectures. The programme aims to equip you with the core knowledge expected of a contemporary physicist.
You will follow an advanced course of lectures and research that can be tailored to your individual interests and preferred areas of specialisation. Teaching and supervision focus on bringing you up to date with current research in the department’s fields, while offering intensive tutoring when needed and fostering increasing independence and responsibility. The programme also emphasizes making your work visible through presentations and scientific writing, so you develop professional communication skills in addition to technical expertise.
For full details about modules, elective options and research areas, please consult the programme’s Course Details on the official programme webpage.
Key facts and programme requirements
In the first year of the two-year programme you follow advanced lectures and seminars across a broad choice of physics topics. Core emphases include experimental and theoretical solid-state physics, theoretical and computational methods in particle physics, and high-performance computing, but other specialised topics are offered as well. Courses are designed to be interactive, encouraging discussion and active participation. You are expected to take four lectures from the approved list (together making up roughly half of your workload) and select additional lectures or short-notice seminars to complete your programme. Complementary skills courses — for example on presentation technique, computer science tools or laboratory electronics — are also available.
During the second year you join a research group and work closely with supervisors and colleagues on current scientific problems, culminating in an independent Master’s thesis. Daily involvement in the group’s research and activities provides intensive guidance and rapid development of practical research skills. Many students go on to PhD projects (paid positions, typically three to four years) after graduation; if you plan to continue toward a doctorate, informing staff early helps align thesis work and funding opportunities.
By the end of the programme you will have:
Program requirements and structure (concise)
Overview This master's programme expects applicants to hold a solid, physics-focused undergraduate education. A Bachelor of Science in physics—or a very closely related degree—is required; three-year bachelor programmes can be acceptable provided they are not dominated by general-education courses and include a strong scientific core. Scientifically oriented physics degrees from other systems typically meet these expectations.
Academic preparation You should have taken foundational physics courses during your bachelor studies. In particular, key lectures such as quantum mechanics and solid‑state (condensed-matter) physics are expected among your prior coursework (the list of required topics is not exhaustive). If your degree title differs from “physics,” the content of your programme will be evaluated to ensure it covers these essential subjects.
Grades and formal rules Good academic performance is required: on a linear grading scale your average must be better than the midpoint between the best possible grade and the lowest passing grade. Please note that the official examination regulations (Prüfungsordnung) govern admissions; the points below summarize the most important requirements as we typically see them, but the formal rules and decisions of the admissions office take precedence. If your transcripts use a different grading system, you should be prepared to provide documentation or allow a grade conversion during assessment.
Admission requirements (concise)
Winter Semester (International)
15 January 2027
Summer Semester (International)
15 June 2026
Winter Semester (EU/EEA)
15 January 2027
Summer Semester (EU/EEA)
15 June 2026
Graduates are well prepared for research careers in academia and national or international research institutes, often continuing directly into paid PhD positions available through university research groups. The programme’s strong emphasis on experimental skills, computational methods and scientific communication also equips students for R&D roles in industry sectors such as materials science, nanotechnology, electronics, and computational modelling.
Beyond research and industry R&D, alumni may pursue careers in data science, software development for scientific applications, technical consulting, or science communication and education — leveraging the programme’s combination of theoretical knowledge, practical laboratory experience, and transferable skills.
Friedrich Schiller University Jena — Jena
University of Göttingen — Göttingen
Technical University of Munich — München
Johannes Gutenberg University Mainz — Mainz