This English-taught, two-year Master’s programme brings together Materials Science and Engineering with Chemical and Biological Engineering to train engineers who can design both novel materials and the sustainable processes needed to make them. The curriculum emphasises the close link between material properties and production methods — from catalysts and process design to advanced functional materials — and is delivered in small-group formats that allow individually tailored study plans and close mentorship.
Students build a solid foundation in the fundamentals of chemical/biological engineering and materials science while choosing one of four specialisation tracks to deepen technical expertise: Advanced Processes; Biomaterials and Bioprocessing; Computational Materials Science and Process Simulation; and Nanomaterials and Nanotechnology. Teaching is complemented by early research exposure through mini projects and literature reviews, plus events such as summer schools and workshops. The programme offers educational grants, extra‑credit modules for academic or industry career preparation, and strong support from the MAP team.
The programme is highly selective and accredited, with a low student-to-faculty ratio and a culture that encourages progression to doctoral research as well as employment in industry. Graduates are sought after across sectors including automotive, aerospace, oil and gas, food technology, health and safety, and pharmaceuticals. The academic setting is strengthened by close ties to local research centres and institutes, providing a rich environment for applied and fundamental projects.
Key facts and programme features
Overview The MSc runs over four semesters and blends foundational engineering and materials science with more advanced, topic-specific courses. Core "Fundamentals" lectures build the essential knowledge in Materials Science & Engineering and Chemical/Biological Engineering, while "Basics" lectures introduce each of the programme’s four focal topics. Students specialise in two of those four focal topics, and the curriculum is rounded out by soft-skill and scientific-skill training plus a mini project that gives hands-on research experience at participating institutes. The degree culminates in an independent Master’s thesis.
Teaching approach and added value This English-language programme is explicitly interdisciplinary, linking Materials Science with Chemistry and Bioengineering in alignment with the university’s research focus on new materials and processes. Teaching combines traditional lectures with innovative concepts, mentoring, individually tailored study plans, and early active participation in research. There is also a competitive selection process and structured support (e.g., mentoring and soft-skill courses) to help international students integrate and progress.
Key learning outcomes By the end of the programme you will have:
Programme requirements (curricular highlights)
For detailed semester-by-semester course lists and descriptions, consult the programme’s official webpage.
Admission overview
This interdisciplinary Master's program seeks applicants with a strong quantitative and scientific background who can thrive in an intensive, research-oriented environment. Successful candidates typically hold an excellent Bachelor’s degree in a subject closely related to materials and processes and can demonstrate clear motivation for studying across disciplinary boundaries. As the program is taught in English, proven advanced English-language ability is required.
For full application steps, deadlines and document submission rules, consult the MAP programme website where detailed instructions and any programme-specific forms are provided.
Admission requirements (bullet points)
Expected undergraduate majors (applicants from these backgrounds are typical)
Accepted degree types
Winter Semester (International)
31 March 2026
Winter Semester (EU/EEA)
1 June 2026
A high proportion of MAP graduates continue to doctoral studies, reflecting the programme’s strong research focus and early integration into active projects. Graduates are also sought after by industry for roles in R&D, process and materials development, and technical consultancy.
Typical employment sectors include automotive and aerospace, oil & gas, food technology, health & safety, and pharmaceuticals. The combination of experimental, computational and process engineering skills equips alumni for positions that require designing novel materials, optimising sustainable production processes, or leading interdisciplinary development teams.
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