Overview The English-language Master of Science in Physics is a four-semester, research-focused degree worth 120 credit points. The programme is designed as a closely mentored course of study that builds advanced specialist knowledge in both experimental and theoretical physics while providing substantial hands-on and research experience. The first two semesters form an advanced-studies phase with modules organized around applied, experimental and theoretical topics that reflect the research priorities of the Institute of Physics and its partners.
Research & career orientation The final two semesters make up a research phase in which the major element is the master’s thesis; students tackle current scientific questions, carry out independent research and prepare for possible doctoral studies or research careers. A central strength of the programme is materials research connected to semiconductor devices and functional materials: identifying and characterising new materials for future silicon-based nanotechnologies, developing and testing innovative semiconductor devices (for example integrated sensors), performing spectroscopic analyses of interfaces and nanostructures, and exploring device integration into existing technology platforms (such as integrated THz sources) and questions of technical reliability. These experimental themes are complemented by active research in condensed-matter theory and non-linear physics. Strong links with non-university research institutions (Fraunhofer Institute for Photonic Microsystems, DESY Zeuthen, Institute for Crystal Growth Berlin, IHP Frankfurt/Oder) broaden the range of possible research directions and give students direct contact with external working groups during the advanced studies phase.
Key facts
For more information, visit: https://www.b-tu.de/en/physics-ms/
This international, research-focused Master's runs over four semesters and awards 120 credit points (CP) in total. The curriculum is split into two main phases: an advanced studies (specialisation) phase during semesters 1–2, and a research phase in semesters 3–4. Credit load is balanced across the programme—students earn 30 CP each semester—so the workload is evenly distributed and designed to lead smoothly from coursework to independent research.
In the first year you concentrate on advanced and specialised modules that build the subject knowledge and methodological skills needed to carry out a substantive research project in the second year. These taught modules provide the theoretical foundations and specialised competencies that underpin your Master's thesis work. In semesters 3 and 4 the emphasis switches to a research-oriented curriculum: you complete a substantial research project and thesis under academic supervision, applying the specialised knowledge gained in year one.
Learning outcomes emphasise deep, field-specific understanding and the ability to conduct independent scientific research. By the end of the programme you will have consolidated advanced physics knowledge, developed research skills (including problem formulation, methodology selection and data interpretation), and gained experience in communicating scientific results—preparing you either for entry into research careers or for doctoral studies.
Key facts and requirements
To be eligible for admission you must hold a first qualifying degree (at least a Bachelor's) or an equivalent qualification in Physics or a closely related subject. Below are the key points admissions will look for:
If you are unsure whether your prior studies meet these expectations, contact the admissions office for guidance on equivalence and next steps.
Winter Semester (International)
15 May 2026
Summer Semester (International)
15 January 2027
Winter Semester (EU/EEA)
31 August 2026
Summer Semester (EU/EEA)
1 March 2026
Graduates are prepared for research-intensive careers in both experimental and theoretical physics. Typical paths include positions in R&D at semiconductor and sensor companies, materials science and nanotechnology firms, and technical roles involving device integration and reliability testing. The programme’s emphasis on spectroscopy, interface and nanostructure analysis, and applied device concepts suits roles in industry labs and innovation-focused SMEs.
The research-oriented final two semesters and thesis also position graduates well for continuing to doctoral studies and academic careers. Strong links with research institutes (Fraunhofer, DESY, IHP, Institute for Crystal Growth) further facilitate entry into non-university research organizations and collaborative projects between academia and industry.
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