Overview Advanced Materials focuses on understanding and tailoring modern functional materials by changing their structure at the molecular level to meet specific application needs. The programme addresses practical questions such as how to extend the lifetime of electric‑vehicle batteries, which coatings improve solar‑cell efficiency, or which materials make implants biocompatible. These specially developed materials are central to high‑tech sectors — medicine, mobility, communications, energy and aerospace — and the degree brings together concepts from chemistry and physics with creativity and hands‑on laboratory work to optimise material properties.
What the programme offers This research‑oriented Master’s provides the theoretical foundations and practical skills needed to design, characterise and further develop advanced materials for future applications. It is closely linked to current materials research in Giessen, with particular emphasis on high‑performance and energy materials, so students have the chance to contribute to ongoing projects and specialise in areas of interest. The programme is taught in English and is especially suited to students who enjoy experimental work and are aiming for careers in industry or research. There is also a special opportunity to earn a double degree through partner universities in Japan (Osaka University, Kansai University) and Italy (University of Padua).
Key points / entry profile
Program overview
This two-year, 120 ECTS Master's programme provides an interdisciplinary foundation in contemporary materials science. Early coursework covers core areas such as Functional Solid‑State Materials, Functional Soft Materials, Technical Basics of Advanced Materials, and Renewable Energies, giving you a broad understanding of material classes and the engineering and physical principles that underpin them. From the outset you select a specialisation track that builds on your prior knowledge and aligns with your interests, allowing focused study alongside the core curriculum.
You then apply what you've learned in a dedicated research module where you tackle a specific research question through theoretical and practical work, and you conclude the degree with a written Master's thesis that synthesises your skills and findings. Graduates emerge able to analyse, design and characterise advanced materials, carry out independent research projects, and contribute to areas such as electrochemical systems, high‑performance and sustainable materials, materials analysis, theoretical modelling, and organic synthesis.
Requirements and key components
This Master’s programme normally requires a Bachelor’s degree in Advanced Materials with a minimum of 180 ECTS, and that degree must include a scientific Bachelor’s thesis. For international applicants, 180 ECTS typically corresponds to a three-year undergraduate programme.
The examination board can consider other professionally qualifying university degrees on a case-by-case basis. Relevant examples explicitly mentioned include materials science, materials engineering, biomaterials and energy materials.
Admission may come with conditions: candidates can be asked to complete additional coursework (up to 18 credit points) within the first two semesters, and entry may be subject to an entrance examination. The selection process assesses whether your previous studies provide the skills and knowledge required for the Master’s programme; if an exam is required you will receive at least three weeks’ advance notice.
Winter Semester (International)
15 June 2026
Winter Semester (EU/EEA)
15 June 2026
Graduates are prepared for R&D and specialist roles in industries that rely on advanced materials, including energy and battery technology, electronics and communications, medical devices and implants, mobility and aerospace. Typical job profiles include materials scientist/engineer, product or process developer, materials analyst, quality engineer and technical consultant.
The programme’s strong laboratory focus and research training also provide a solid foundation for doctoral studies and academic careers. International double‑degree options and project collaborations increase mobility and employability in global research labs and multinational companies.
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