Overview
Nanoscience is a leading driver of technological innovation and addresses many of today’s key scientific and societal challenges. This English-language, interdisciplinary master’s program trains you in the science and engineering of materials at the nanoscale, emphasizing how the production, structure, and function of chemical materials determine new technological possibilities. Experts in this area are already in high demand across Germany and internationally, and that demand is expected to grow.
What you will learn
The curriculum gives you a deep understanding of how to design, manipulate and characterize nanostructures and material architectures, and how to translate nanoscale properties into useful macroscopic functions and applications. You will receive rigorous scientific training that builds strong expertise in materials science while also reinforcing specialist foundations in chemistry. This combination prepares you for research-driven roles and interdisciplinary teams in academia, industry, and technology development.
Practical context for international students
Graduates leave with skills that are relevant to a wide range of sectors—materials development, electronics, energy, health, and advanced manufacturing—where nanoscale control creates new functionality. The program’s focus on both fundamental principles and applied material design helps bridge laboratory research and real-world applications, making it suitable preparation for doctoral studies or professional careers in R&D.
Requirements / recommended background
Curriculum overview
All curriculum details for the Master’s programme in Nanoscience are published on the programme website. Please use the provided links to access the programme schedule and the full list of Master's courses. Those pages contain the official semester-by-semester timetable, course catalogues, and up-to-date administrative information you will need to plan your studies.
What you will find and why it matters
The linked “Schedule for the Master’s programme in Nanoscience” and “Master’s courses” pages typically present the complete module list, course descriptions, credit (ECTS) allocations, and assessment formats for each class. They also set out important practical information such as laboratory and seminar components, exam and registration dates, and requirements for the final master’s thesis or research project. The site is the authoritative source for the programme’s learning outcomes and the key modules that define the curriculum; these documents explain the expected competences graduates will have (for example, advanced understanding of nanoscale phenomena, hands‑on experimental and/or computational skills, and research and communication abilities).
If you’d like, paste the module list or links here and I can rewrite or summarize the specific modules and learning outcomes in clear, student‑friendly language.
Requirements — what to check on the curriculum pages
This programme requires a completed undergraduate degree in Nanoscience or a closely related field and documentation proving your academic background. You should be prepared to submit full transcripts and evidence that your bachelor’s programme lasted at least three years. For applicants whose degrees were earned outside countries participating in the Bologna Process, an additional standardized-test requirement applies.
If your degree comes from a non‑Bologna country, you must provide an official GRE score report. The minimum acceptable scores are 150 in Verbal Reasoning and 150 in Quantitative Reasoning. For administrative reference, the programme’s DI Code and institution name are provided below.
Admission requirements (bullet points)
Winter Semester (International)
15 June 2026
Summer Semester (International)
15 January 2027
Winter Semester (EU/EEA)
15 June 2026
Summer Semester (EU/EEA)
15 January 2027
Graduates gain competencies that are in demand in both industry and research worldwide. Typical career paths include roles in materials development, applied research and development, quality and process engineering in high‑tech industries, as well as positions in research institutions and further academic study (PhD programmes).
Because the programme emphasises both theoretical understanding and practical manipulation of nanostructures, graduates are well placed to work on innovation-driven projects across sectors such as electronics, energy, biotechnology and advanced materials.
Trier University of Applied Sciences — Birkenfeld
Technische Universität Braunschweig — Braunschweig
Furtwangen University — Villingen-Schwenningen
University of Siegen — Siegen