Program overview
This four-semester, English-taught Master's programme offers focused training in Materials Science and Engineering with an interdisciplinary approach. Teaching combines lectures with accompanying seminars and laboratory work, covering advanced chemical, physical and mechanical aspects of contemporary materials research. The curriculum is designed to strengthen both theoretical understanding and practical skills, preparing graduates for applied work and further academic study.
Structure and outcomes
During the first three semesters you study mandatory core modules—such as Solid State Physics, Dielectrics and Ceramics, and Macromolecular Chemistry and Polymer Applications—while also carrying out a research project in each semester. The fourth semester is dedicated to your Master's thesis, which may be completed in cooperation with research institutes or industrial partners. Graduates are well prepared for roles in research and development or for pursuing a PhD.
Key requirements and components
For further details, please consult the programme flyer or contact the Department of Chemical Engineering, the Department of Engineering Physics, or the Institute of Business Administration and Engineering.
This master's curriculum combines a focused core with broad interdisciplinary electives to give you both depth and flexibility in materials science. The taught core consists of three required modules — Solid State Physics and Semiconductors, Dielectrics and Ceramics, and Macromolecular Chemistry and Polymer Application — each worth 8 credit points. In addition, you complete three short research projects (4 CP each) that build experimental and project skills early in the programme.
You can tailor the remainder of your studies through a wide range of elective modules across Chemistry, Physics, Mechanical Engineering and Business. Chemistry electives (14 examples offered) are structured as 6 CP modules and include topics such as Particle Technology, Technology of Coatings, Life‑Cycle Assessment, Membrane Separations, Optical and Electrical Characterisation of Materials, and Aerosol- and Nanotechnology. Physics electives cover areas like Quantum Statistical Physics, Biomedical Materials, Microscopy and Surface Science, Battery Production, Laser Physics and Materials Processing, Quantum Sensors, Modelling and Simulation, and Image Processing. There are also options from Mechanical Engineering (e.g., Innovative Materials) and Business Administration (e.g., Project Management, Management Skills). You may also take further elective courses (up to 12 CP total) such as introductory physics/chemistry for engineers, German as a Foreign Language, or Intercultural Communication.
The final semester is dedicated to a research‑based master’s thesis (30 CP) followed by a public defence; theses are commonly carried out in R&D departments of industrial companies. Overall, the programme is designed to develop a solid theoretical foundation (solids, ceramics, polymers), hands‑on experience with materials characterisation and processing, interdisciplinary problem solving across chemistry/physics/engineering, and transferable skills for research or industry roles.
This program requires applicants to have completed an undergraduate degree that provides a strong foundation in the physical or engineering sciences. Degrees that prepare you for this MSc typically focus on materials, mechanics, chemistry or physics and should demonstrate relevant coursework and knowledge.
For international applicants, “equivalent” means a recognised bachelor’s-level qualification from your home country that is comparable in scope and content to the degrees listed. If your background is in a closely related discipline, the admissions team will assess whether your prior studies meet the programme’s requirements — you are encouraged to ask the department for clarification if your degree is not explicitly listed.
Admission requirements (summary)
Winter Semester (International)
31 May 2026
Winter Semester (EU/EEA)
31 May 2026
Graduates are prepared for careers in research and development, materials analysis and product or process engineering across sectors such as chemical, polymer, electronics, energy storage and manufacturing. The combination of core theoretical modules, repeated research projects and an industry-linked thesis equips students for technical roles in industrial R&D labs, quality and materials testing, process development and product innovation.
The programme also provides a solid foundation for those wishing to pursue doctoral studies (PhD) in materials science, engineering physics or related disciplines.
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