Biophysics, Master of Science

This master's programme builds on current research to introduce experimental and theoretical biophysical methods and their practical applications. Teaching emphasizes how physical principles—such as thermodynamics, reaction kinetics and molecular interactions—apply across biological scales, from analyses of whole cells down to individual molecules. Coursework and seminars are closely tied to active research, so you can expect training that connects fundamental concepts to hands-on analytical approaches.

The curriculum also covers both theoretical frameworks and laboratory techniques relevant to several interdisciplinary areas. Specific subjects include plant membrane transport systems, structural biology, biochemistry, biomedicine, integrative biology and bioinformatics. Together these components provide a broad foundation for studying molecular mechanisms in living systems and for using quantitative, physics-based approaches in life-science research.

Topics covered (concise bullet points)

• Thermodynamics, reaction kinetics and molecular interactions
• Single-cell and single-molecule analysis methods
• Theoretical and methodological aspects of plant membrane transport
• Structural biology and biochemistry
• Biomedicine and integrative biology
• Bioinformatics and computational approaches

This combination of theory, methods and application is particularly suitable if you want a research-oriented programme that links physical science perspectives with contemporary problems in the life sciences.

This Master’s curriculum combines two tightly linked areas: molecular and cellular biophysics, and molecular biology. In the first year students take a balanced set of courses in both fields — for each topic they complete two lecture-style (theoretical) modules and one hands-on (practical) module — giving solid grounding in theory and laboratory techniques. Core taught modules are assessed by graded examinations, ensuring you build and are tested on both conceptual understanding and technical skills.

In semesters three and four the emphasis shifts to specialised research training. You join ongoing research projects in your chosen subfield, learning to design and carry out independent theoretical and experimental work. A 12-week preparatory practical (15 ECTS, ungraded) directly precedes the Master’s thesis, which is worth 25 ECTS; the thesis must be presented and defended in a final colloquium. In addition, 15 ECTS of “Additional Qualifications” allow you to pick up targeted skills or knowledge areas; these modules are assessed pass/fail rather than with grades.

Key learning outcomes include:

• Mastery of core concepts in molecular and cellular biophysics and molecular biology
• Practical laboratory and experimental skills gained through mandatory practical modules and the preparatory practical
• Ability to plan, execute and analyse independent research projects
• Scientific communication skills, demonstrated by thesis writing, presentation and defence
• Opportunity to broaden expertise via elective Additional Qualifications

Curriculum requirements (summary)

• First year: for each major topic (A: molecular & cellular biophysics; B: molecular biology) — 2 theoretical modules + 1 practical module
• Core modules: accompanied by graded examinations
• Semesters 3–4: specialised research training integrated into active research projects
• Preparatory practical course: 12 weeks, 15 ECTS, ungraded (pass only)
• Master’s thesis: 25 ECTS; must be presented and defended in a final colloquium
• Additional Qualifications: 15 ECTS chosen within the sub-area, assessed pass/fail

Graduates are prepared for research careers in academia (PhD positions and postdoctoral work) and for roles in industry sectors such as biotechnology, pharmaceuticals, medical technology and bioinformatics. The programme’s emphasis on experimental techniques, theoretical analysis and data interpretation equips students for laboratory-based positions and interdisciplinary teams.

Other possible career paths include roles in structural biology, plant sciences, biomedical research, scientific consulting or technical development. The combination of hands-on laboratory experience and independent research training also supports careers in science communication, project management within research environments, and further specialised training.