Overview This master's programme prepares graduates to tackle current and emerging challenges in healthcare and human mobility—areas that are becoming increasingly important because of demographic change, expanding autonomy needs in later life, and advances in regenerative medicine. You will develop professionally and methodically to analyze complex biomedical-technical problems using core scientific principles, and to continually acquire new, advanced knowledge throughout your career.
What you will learn The curriculum blends mechanical engineering with medicine, biology and sports/motion science to enable an interdisciplinary perspective: translating engineering fundamentals into biological and biomedical contexts. Teaching covers materials science, mechanical design and construction, mechanics, human medicine and biology, and medical device regulation so you can comprehensively support the design, development and adaptation of biomedical products that operate on mechanical principles. Emphasis is placed on methodical competence so graduates can evaluate biomedical–technical relationships and respond to ongoing technological and clinical challenges.
Specialisation tracks You choose one of two specialist paths—endoprosthetics or exoprosthetics—each organised around four dedicated modules. These tracks address the full spectrum of requirements for sustainable medical-device development: design and calculation, adaptation and fitting, installation, and targeted improvements, providing both academic depth and professional qualification in your chosen field.
Expected background and applicant profile
The Master’s curriculum is built from compact 5-credit modules that let you combine a solid core education with focused technical depth and elective breadth. You complete a mandatory core area made up of ten 5‑credit modules, then choose one of two specialisations—Exoprosthetics or Endoprosthetics—consisting of four 5‑credit modules. In addition, the course includes an interdisciplinary project (5 CP), three elective modules (each 5 CP) drawn from a wide catalogue, and the final Master’s thesis with an accompanying scientific colloquium.
The programme schedule spreads the mandatory and elective modules across the first three semesters, while the interdisciplinary project is recommended to take place in the third semester. The degree culminates in the Master’s thesis and its public presentation, allowing you to demonstrate your capacity for independent, scientific work within a defined timeframe.
Graduates emerge with advanced biomechanical engineering knowledge tailored to either external prosthetic systems (Exoprosthetics) or implanted devices (Endoprosthetics), plus transferable skills in interdisciplinary collaboration and project-based development. The programme trains you to design and evaluate biomechanical solutions, manage applied research projects, and communicate results scientifically and professionally. It also supports individual academic interests and helps align coursework with the specific demands of your intended career path.
Requirements (concise)
To apply you must hold a relevant Bachelor's degree (minimum 180 CP — ECTS credits) with an overall average grade of at least 2.5 (calculated as the mean of all submitted examination results). Admission to this program is restricted (Numerus Clausus), so places are limited and selection is competitive. Applicants must demonstrate subject-related professional qualification by supplying evidence of specific credit allocations in core areas.
If your transcripts use a different credit or grading system, contact the admissions office early to confirm how your records will be evaluated and whether any additional documentation is needed.
Winter Semester (International)
15 June 2026
Winter Semester (EU/EEA)
15 June 2026
Graduates are prepared for roles in the biomedical and medical-device sectors, including design, development, testing and adaptation of prosthetics and other biomechanical products. Typical employers include medical device manufacturers, prosthetics and orthotics companies, research institutes, hospitals with clinical engineering departments, and rehabilitation technology providers.
The programme’s interdisciplinary profile and modules on materials, mechanics and medical device regulation also suit careers in R&D, quality assurance and regulatory affairs, as well as positions in start-ups focused on mobility, assistive technologies and regenerative medicine. Graduates can also pursue doctoral research in related fields.
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