This master’s programme trains you to develop mathematical, numerical and software-based solutions for challenges in medical engineering. Core topics include modelling and simulation, computational mathematics and systems theory, together with practical skills in sensor technology and microcontroller programming. The curriculum places strong emphasis on signal and image processing as well as physiological modelling to analyse and interpret biomedical data.
You will also study the applications, limitations and safety considerations of medical devices through modules covering areas such as artificial organs, membrane technologies and minimally invasive surgery. In the second semester you undertake a research project—either at HFU, with a cooperating company or in a hospital—which gives hands-on experience and prepares you for your master’s thesis.
This Master’s in Biomedical Engineering is delivered in small groups (typically 20–30 students), encouraging frequent, interactive exchanges between students and faculty. Teaching follows the ECTS framework and normally includes about 20 hours of contact time per week; you should plan for at least an additional 20 hours weekly for independent study, project work and preparation. Most classroom activity is dialogue-driven and expects prior reading and active participation.
The programme is structured to build a strong foundation in the first semester, with core modules in mathematics and research methods, hands-on lab classes and introductory medical-engineering lectures. You will gain practical experience in modelling and simulation and learn widely used tools such as Matlab, while simultaneously developing awareness of clinical problems and biomedical strategies. The second semester shifts toward advanced, specialised lectures and research-related projects; elective courses allow you to deepen specific areas of interest. A Management Skills module teaches essential soft skills for professional life. The master’s degree is completed by producing a report on a comprehensive scientific project—the Master’s thesis.
Key modules and learning outcomes
Program requirements (concise)
Admission overview
We are looking for applicants who hold an above-average Bachelor's degree (or an equivalent qualification) in a relevant engineering, computing, biotechnology or medical field. Successful candidates typically come from backgrounds that provide a solid foundation for advanced study in biomedical engineering.
During the online application you will need to provide official academic documentation and, where required, a recognized certificate of degree equivalence or accreditation. You will be asked to upload either a transcript or a degree accreditation issued by the APS office of your country or by the Studienkolleg Konstanz — please follow the recognition procedure described at the link below.
Admission requirements (summary)
Note: Check the linked recognition procedure early in the application process to ensure you obtain the correct accreditation documents in time.
Winter Semester (International)
15 May 2026
Winter Semester (EU/EEA)
15 May 2026
Graduates are prepared for technical and development roles in the medical technology and healthcare sectors, including positions in medical device companies, hospitals, and healthcare-focused engineering firms. Their skills in modelling and simulation, signal and image processing, sensorics and embedded systems are directly applicable to R&D, product development, validation and technical support roles.
The programme’s hands-on lab work, company/hospital research projects and soft-skills (Management Skills) training also equip graduates for multidisciplinary teams and project-management responsibilities. Graduates may further pursue doctoral research in biomedical engineering or related fields if they choose an academic career path.
Technical University of Munich — München
Technical University of Munich — München
Hochschule Fresenius - University of Applied Sciences — Berlin
Dresden International University — Dresden