Physics

This English-taught Master’s programme gives you a rigorous grounding in core physics while emphasizing advanced, hands-on research. Teaching takes place on a modern science campus with a favorable teacher-to-student ratio, so you can expect close interaction with faculty and substantial supervision in both coursework and research projects. The programme balances experimental training in state-of-the-art laboratories with opportunities to work at the theoretical frontier.

Research options are broad and focused largely within condensed matter physics, including quantum phenomena in reduced-dimensional systems and applications in nanoscience and novel materials. Theoretical groups in the department lead a national research unit investigating the emergence of thermodynamics in non-equilibrium systems, using statistical physics for complex classical and quantum problems. Experimental techniques available to students include ultrafast optics, x-ray and photoelectron spectroscopies, magnetometry, spin resonance, ultra-high-resolution scanning probe microscopy, and electronic transport measurements.

You will gain practical experience on modern infrastructure that is being continually expanded—new high-performance computer clusters and up-to-date nanoelectronics and microelectronics fabrication facilities give students first-hand exposure to contemporary research and industrial-style work environments. For international students, the programme’s English instruction and research-oriented setup support engagement with global scientific questions and career paths in academia or technology sectors.

Requirements (as stated or implied in the original description)

• Language of instruction: English
• Degree awarded: Master of Science (Physics)
• Programme focus: advanced experimental and theoretical research in physics (condensed matter, non-equilibrium/statistical physics)
• Facilities and methods available: ultrafast optics; x-ray and photoelectron spectroscopy; magnetometry; spin resonance; highest-resolution scanning probe microscopy; electronic transport; HPC clusters; nano/microelectronics fabrication
• Note: Specific admission criteria (previous degree, credit requirements, language certificates, application deadlines) were not provided in the original text—check the university’s official programme page for detailed entry requirements.

Curriculum overview and structure

This two-year master's is a fully modular, English-taught program totaling 120 credit points (CP). Students design an individual study plan split across four terms. The first year (terms 1–2) covers 60 CP with a strong focus on an in-depth Physics major and a complementary minor; the second year (terms 3–4) focuses on professional specialization, an extended research project and the master’s thesis, also adding up to 60 CP.

Key modules and learning outcomes

The Physics major consists of eight to nine modules (42 CP) drawn from a pool of about 40 available modules. Core options include subjects such as Applied Solid State Physics, Biophysics, Surface Science, Condensed Matter Theory and Ultrafast Physics. The major also contains advanced laboratory coursework (12 CP), ensuring hands-on experimental training alongside theory. The minor (18 CP) comprises two to three modules taken in a different discipline — choices include Systems Science (Mathematics), Biology, Chemistry, Computer Science, Economics, Languages, Mathematics and Philosophy of Science — to provide interdisciplinary breadth.

In the final year students complete a 12 CP professional specialization to build vocational or technical skills, a 15 CP research project to develop independent experimental or theoretical research capability, and a 33 CP master’s thesis with an accompanying colloquium that demonstrates the ability to conduct, document and present original research. Graduates will leave with advanced laboratory and analytical skills, specialized theoretical and computational knowledge in their chosen subfield, interdisciplinary perspectives, and experience in scientific communication and project work that prepare them for doctoral studies or careers in research and industry.

Requirements (concise)

• Total workload: 120 CP; teaching language: English
• Terms 1–2: 60 CP (Major + Minor)
• Major (Physics): 8–9 modules, total 42 CP, including advanced lab courses (12 CP)
• At least two core modules (6 CP each) chosen from options such as Applied Solid State Physics, Biophysics, Surface Science, Condensed Matter Theory, Ultrafast Physics
• Minor: 2–3 modules from Systems Science (Mathematics), Biology, Chemistry, Computer Science, Economics, Languages, Mathematics, Philosophy of Science — total 18 CP
• Terms 3–4: 60 CP comprised of Professional Specialization (12 CP), Research Project (15 CP), Master’s Thesis + Colloquium (33 CP)

Graduates are prepared for research careers in academia (PhD programmes) and for R&D positions in industry sectors such as nano‑ and microelectronics, materials science, photonics, instrumentation and applied spectroscopy. The combination of experimental techniques, theoretical training and computational skills also suits roles in data analysis, high‑tech engineering and technology development.

The programme’s strong lab training and research project components build transferable skills—project management, scientific communication and independent problem solving—valued in both public research institutions and private industry. Those aiming for academia will be well positioned to apply for doctoral programmes nationally and internationally.