This English-taught master’s programme is designed to deepen and specialise the student’s knowledge in selected areas of nanotechnology, with a clear emphasis on the materials science aspects of the field. The curriculum balances experimental, synthetic and computational approaches so students gain both practical laboratory experience and theoretical insight into nanoscale systems. The programme is situated within the broader context of chemical engineering and materials science, making it relevant for students aiming to work at the interface of materials, devices and nano-enabled applications.
Core teaching is organised around five compulsory nanotechnology modules that cover nanocharacterisation, hands-on laboratory work, synthesis and characterisation methods, computational nanoscience, top-down nanostructuring and bottom-up synthesis/self-assembly. Beyond these core modules, students pick one major subject in materials science from a broad range of options (from polymers and biomaterials to materials for electronics and energy, glass and ceramics, metals, surface science and simulation) and supplement their profile with two elective modules in natural sciences or technology. This combination fosters an interdisciplinary understanding of how nanoscale materials are designed, characterised and applied.
In addition to technical content, the programme places deliberate emphasis on transferable skills and independent scientific project work—communication, teamwork and project management are integral to the training. Graduates leave with a strong scientific profile and practical experience that open up diverse career pathways in both national and international industry and academia.
Requirements (programme completion)
The programme centers on five compulsory nanotechnology modules: nanocharacterisation; laboratory work; synthesis/characterisation; computational nanoscience; top-down nanostructuring; and bottom-up nano-synthesis/self-assembly. In addition, students select one materials-science core subject (options include general materials properties; materials science and engineering for metals; glass and ceramics; surface science and corrosion; polymer materials; materials for electronics and energy technology; biomaterials; materials simulation; and micro- and nanostructure research) plus two elective modules from the natural sciences and technology.
Coursework blends hands-on lab training and instrumentation (nanocharacterisation, synthesis and lab work) with computational modelling and theory (computational nanoscience). The programme also builds transferable skills for scientific project management and communication, culminating in a master's thesis written in English. Learning outcomes include practical competence in nanofabrication and characterisation techniques, the ability to apply computational methods to nanoscale problems, and readiness for R&D roles or doctoral studies.
A recognised, subject-specific Bachelor's degree is required to apply. Applicants holding related or non-equivalent degrees can be considered for admission under certain conditions if their prior studies include the programme’s minimum subject knowledge. Degrees typically regarded as subject-related include Bachelor's or "Diplom" qualifications in materials science, chemistry, physics, or other programmes with a broad nanotechnology emphasis — provided the specified credit and content requirements have been met.
In addition to subject background, the programme has minimum grade and credit expectations, an English language requirement, and selection through a qualification assessment test. If you are studying an FAU Bachelor’s in Materials Science or Nanotechnology, there is a specific ECTS threshold that must be reached by the time you apply.
Requirements (summary)
Winter Semester (International)
31 May 2026
Summer Semester (International)
15 January 2027
Winter Semester (EU/EEA)
31 May 2026
Summer Semester (EU/EEA)
15 January 2027
Graduates are prepared for technical and research roles in national and international industry sectors such as advanced materials, semiconductors, electronics, energy technologies, and biomedical nanotechnology. Typical functions include R&D scientist/engineer, materials development specialist, process engineer, and technical consultant. The programme also provides a solid foundation for continuing academic research at the PhD level.
Because the curriculum combines experimental, theoretical and soft skills, alumni are equipped to work in interdisciplinary teams, lead scientific projects, and adapt to roles in both applied industrial environments and university or research institute laboratories.
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