Overview
This master's programme trains students to understand how ionising radiation affects living systems and how those effects can be used or mitigated in medicine and technology. It covers both the therapeutic applications of radiation—most notably in cancer diagnosis and treatment—and the potential risks from common sources such as diagnostic X‑ray procedures (for example computed tomography), whose use and resulting population exposure have risen steadily. The subject is highly interdisciplinary, drawing on biology, physics, medicine, epidemiology and ethics.
The course is delivered in English over two years and places strong emphasis on research, supported by close links to the clinical and scientific activities of the Rechts der Isar university hospital. Graduates typically work at the interface between laboratory research and clinical practice, pursuing translational and preclinical research that advances techniques in nuclear medicine, radiology and radiation oncology.
Specialisations and topics taught include cell and molecular biology, pathophysiology, tumour biology and carcinogenesis, cytogenetics, immunology, radiation physics, radiation medicine and imaging (radiation oncology, nuclear medicine and radiology), epidemiology, radiation protection and ethics.
Key facts
This four-semester, 120 CP Master’s course is built to give you a solid, layered education in radiation biology. During the first two semesters you follow a set of compulsory modules that progressively develop core knowledge in the field; both semesters include practical components so you gain hands-on experience alongside theoretical training. In the third semester you move into the elective area: a research internship, complementary elective courses to strengthen core skills, and one of several in-depth tracks — clinical and experimental radiation oncology, imaging in radiation research, or advanced molecular radiation biology. The fourth semester is dedicated to completing your Master's thesis, allowing you to apply what you've learned to an independent research project.
Graduates will emerge with a firm grounding in the principles of radiation biology, practical laboratory and/or clinical research experience, and the ability to interpret and use imaging and molecular techniques relevant to radiation research. You will develop research design and data-analysis skills, gain experience working in experimental or clinical settings (depending on your chosen in-depth option), and be prepared to carry out an independent scientific project culminating in the Master’s thesis. The programme also builds transferable competencies such as scientific communication, critical appraisal of literature, and problem-solving in multidisciplinary teams.
Program requirements and structure (concise)
This Master's programme is aimed primarily at very good graduates from German or international universities who hold a qualifying Bachelor of Science (or an equivalent degree recognised in Germany) in physics, biology, medicine, chemistry, environmental sciences or closely related disciplines. Successful applicants will already have solid foundational scientific knowledge and a clear motivation for interdisciplinary research in radiation biology.
Candidates must be comfortable with both theoretical and practical work: the programme expects basic scientific skills in mathematics, physics and biology, as well as the ability to work methodically across disciplines. Applicants should be prepared for intensive laboratory practicals and independent study, and demonstrate strong interest in radiation biology research.
Admission includes an aptitude assessment that evaluates academic and professional qualifications, degree performance, motivation for the programme and other relevant qualifications.
Winter Semester (International)
31 May 2026
Winter Semester (EU/EEA)
31 May 2026
Graduates typically pursue roles as translational researchers bridging laboratory science and clinical practice, particularly in preclinical research for nuclear medicine, radiology and radiation oncology. The programme’s emphasis on practical laboratory skills and clinical collaboration prepares alumni to contribute to the development and evaluation of innovative diagnostic and therapeutic methods.
Additional career pathways include research positions in academic institutes, technical and regulatory roles related to radiation protection, and opportunities within national research organisations and industry partners working on imaging, radiopharmaceuticals and radiation safety.
Technical University of Munich — München
Technical University of Munich — München
Hochschule Fresenius - University of Applied Sciences — Berlin
Dresden International University — Dresden