This interdisciplinary Master’s programme at KIT’s Department of Mechanical Engineering trains students to develop and enhance materials used in cutting‑edge technologies and novel applications. Graduates go on to work on things like composite materials for lightweight, fuel‑efficient automotive designs; high‑performance functional materials for advanced information and energy storage; and biocompatible materials for medical devices and implants.
The programme builds on a long German‑taught tradition (established in 2011/2012) and, since the winter semester 2020/2021, is also available fully in English or as a bilingual option. It is a two‑year degree that brings together students from diverse disciplinary and cultural backgrounds in small classes, and offers strong student support and German language courses to help international students settle in academically and socially.
Teaching and research in the English track are closely linked to the Cluster of Excellence 3D Matter Made to Order (3DMM2O), a joint initiative of KIT and Heidelberg University. Courses run by 3DMM2O principal investigators are integrated into the curriculum to prepare students for research careers within the cluster. KIT’s materials science activities have earned a strong reputation: U.S. News placed KIT at the top among German universities for Materials Science in 2020, and QS World University Rankings by Subject 2021 ranked KIT second in Germany and among the top 50 worldwide. The new Material Research Center for Energy Systems (MZE) on KIT Campus South further strengthens collaboration between KIT, the Fraunhofer Society, and industry partners.
Requirements & practical info (key facts)
This master's curriculum begins with a solid foundation in core materials science topics: thermodynamics, kinetics, materials characterisation, simulation, and materials properties. These core modules give you the theoretical background and practical laboratory/analytical skills needed to understand how materials behave, how they are analysed, and how computational tools can predict their performance.
After the core phase, you personalise your studies by selecting two of four advanced focal courses—Functional Materials, Materials Processing, Computational Material Science, or Structural Materials—allowing you to specialise in areas that match your interests and career goals. A compulsory nine-week internship is built into the programme to provide hands-on experience and direct links to Germany’s internationally strong industry sector, helping you develop professional contacts and apply classroom knowledge in real-world settings.
The final semester is dedicated to an independent, research-oriented Master’s thesis, where you investigate a problem using scientific methods and demonstrate your ability to carry out sustained, original work. Overall the programme runs for two years and awards 120 ECTS, preparing graduates for roles in research and development, advanced engineering, or further academic study (e.g., PhD) through a combination of theoretical depth, applied experience, and specialised coursework.
Key requirements and features
This programme expects applicants to hold a relevant, above-average bachelor’s degree and to have a solid foundation in core materials science and engineering subjects. If your bachelor’s diploma is still pending at the application deadline but will be finished before enrolment, you may apply using a preliminary transcript. If you lack some of the specified background, you can still be considered provided you pass the programme’s entrance examination.
Entrance exam logistics and registration:
More details and instructions: https://3dmm2o.de/opportunities/open-positions/master-program/application-procedure/
Winter Semester (International)
30 September 2026
Summer Semester (International)
31 March 2026
Winter Semester (EU/EEA)
30 September 2026
Summer Semester (EU/EEA)
31 March 2026
Graduates are prepared for technical and research careers in sectors that design, process and characterise advanced materials — for example, automotive and aerospace (lightweight composites), energy and storage technologies (functional materials), and biomedical device manufacturing (biocompatible materials). The curriculum’s mix of theory, simulation and hands-on processing equips students for roles in R&D, product development and materials engineering.
Thanks to the programme’s industry links, mandatory internship and collaboration with the 3DMM2O cluster and MZE, graduates are also well positioned to pursue doctoral research or specialised positions in research institutes (including Fraunhofer) and high-tech companies across Europe and beyond.
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TU Bergakademie Freiberg — Freiberg
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