This English-taught Master's programme is designed so you can build on the Department of Physics’ core strengths. Research at the department centers on soft matter physics, solid-state & nanophysics, quantum optics & quantum information, plasma physics, and medical physics/biophysics. The curriculum gives you both theoretical foundations and hands-on experimental experience, and it culminates in an independent research project carried out within one of the department’s research groups.
You select two of the department’s main research areas as your focus, and each chosen area includes both an experimental module and a theoretical module to ensure balanced training. The programme finishes with a master’s thesis performed in a research group at the Department of Physics, allowing you to apply your coursework to a substantive research problem.
In addition to the five main research tracks, the programme regularly offers modules in related fields—examples include laser physics, astrophysics, computational physics, and advanced quantum mechanics—so you can broaden or deepen your expertise beyond the chosen focus areas.
Program requirements (concise)
Curriculum overview
The programme is structured to move from taught courses in the first year to hands‑on, research‑oriented work in the second year. In year one you follow lecture courses accompanied by exercise sessions to build a solid theoretical and mathematical foundation. You will select two specialised focus areas (each represented by two modules) drawn from the department’s main research themes, and complement these with four elective physics modules chosen from other research topics such as laser physics, computational physics, astrophysics, advanced quantum mechanics, and similar subjects. International students commonly take general electives like German language classes to aid integration and daily life.
In year two the emphasis shifts to seminars, laboratory and computational practicals, and sustained research activity. The first half of the second year combines further elective physics modules with a specialisation module that provides concentrated, practical training in the methods and tools required for cutting‑edge research, developing detailed, state‑of‑the‑art knowledge in your chosen area. The final half of the programme is devoted to an independently conducted but supervised master’s thesis—experimental or theoretical—focussed on the chosen specialisation and intended to reach international research standards. Throughout the programme students benefit from close contact with faculty and a favourable teacher–student ratio, supporting guided yet independent development as researchers.
Program requirements (curriculum components)
You must hold a completed Bachelor's degree (or an equivalent qualification) in physics to be eligible. Your application should include a full transcript that lists all courses you have taken. If you are applying from outside the EU, a Preliminary Review Document (VPD) issued by uni-assist is required. For details about the exact course prerequisites, consult the programme website before applying.
GRE General Test and GRE Physics Subject Test scores are recommended, especially for applicants from outside the EU, though they are not stated as mandatory. The admission committee will review the materials you submit and decide whether your prior degree is equivalent to a Bachelor's degree in physics from the University of Düsseldorf.
Admission requirements (summary)
Winter Semester (International)
15 June 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 (including progression to PhD programmes) and for roles in research & development across industry sectors that rely on applied physics—such as photonics and optics, nanotechnology, medical physics and biotechnology, plasma applications, and computational modelling. The combination of theoretical and experimental training also suits positions in instrumentation, technical consulting, and advanced engineering roles.
The programme's emphasis on independent thesis work and specialised methods provides a strong foundation for employers and doctoral programmes seeking candidates with hands-on laboratory or theoretical modelling experience and the ability to carry out autonomous research projects.
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