Overview Biophysics sits at the interface of physics and biology and uses physical methods to investigate the complexity of living systems at molecular, cellular and higher levels. This Master's programme is taught in English and focuses on understanding molecular interactions and the physical mechanisms that underlie life processes — including how malfunctions can lead to disease. The course combines theory and practical laboratory work so you learn to analyze biological systems with quantitative, physics-based approaches.
Programme focus and structure The programme aims to give a broad, research-led education in modern biophysics with strong emphasis on hands-on experience. You will be trained in quantitative thinking and current experimental techniques that reflect active research in the field. Students deepen prior knowledge in biophysics, chemistry and biochemistry, and are supported in undertaking their first independent research project under supervision.
Interdisciplinary environment and options Teaching and research are structured around close collaboration between physics, chemistry and biology, allowing you to tailor your studies across disciplines. Elective topics cover areas such as cellular biophysics, bioinformatics, neurobiology, cellular and molecular biology, nanomaterials and polymer physics. The programme is research-oriented and is aimed at highly motivated applicants with clear interests in both physics and biology.
Requirements (typical applicant profile)
The programme is built from modular components, so you can tailor your study plan to suit your background and career interests. Early “adaptation” modules are provided to help students from diverse undergraduate degrees get up to speed with the biophysics content. In the first year, teaching concentrates on these adaptation modules alongside core biophysics lectures, advanced seminars and hands‑on biophysics laboratory courses. Elective courses from various life‑science disciplines can be combined with the core offering so you can shape a more interdisciplinary profile. Lab work is done in small groups to maximise practical experience and close supervision.
In the second year the emphasis shifts strongly toward independent research. You must complete two research projects — one situated firmly within biophysics and one in another natural‑science area — which broaden your methodological toolkit and expose you to different research cultures. The programme concludes with a research‑oriented Master’s thesis carried out during the final semester; this thesis project runs for six months and is designed to develop project management and scientific communication skills.
Requirements (curriculum components)
This programme is open to applicants who hold a relevant undergraduate degree in biophysics, physics, physics and management, chemistry, molecular medicine, biology, biotechnology or a closely equivalent qualification from another institution. If your Bachelor’s degree is not yet completed, you may apply based on your current study and exam results up to the application date. The programme requires demonstrable prior coursework in mathematics and physics and adequate English language proficiency as defined in the university statutes.
International applicants should note that ECTS credits are used to quantify prior coursework, and that any foreign degree will be assessed for equivalence. If your final or current average grade is below a specified threshold, you must submit a short motivation statement in English (max. one page) explaining your reasons for choosing the programme; this statement must be judged “suitable” under the programme’s assessment rules.
Admission requirements (summary)
Winter Semester (International)
15 May 2026
Summer Semester (International)
15 January 2027
Winter Semester (EU/EEA)
15 May 2026
Summer Semester (EU/EEA)
15 January 2027
This programme prepares graduates for research careers in academia (including direct progression to PhD programmes) and for roles in industry sectors that apply physical methods to life-science problems, such as biotechnology, medical technology, pharmaceutical research and nanotechnology. Graduates gain skills in quantitative analysis, experimental techniques and interdisciplinary collaboration that are valued in both basic and applied research settings.
Because of its strong laboratory component and project-based training, the degree is particularly suited to students who want to pursue doctoral studies or research positions where independent experimental design and interdisciplinary problem-solving are required.
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