The aerospace sector is a growing global industry that drives innovation across many engineering disciplines. This Master’s program builds on the host university’s deep expertise to offer an advanced, research-oriented education in aerospace engineering taught in English by internationally recognised specialists. It positions students at the intersection of engineering tradition and emerging technologies, preparing graduates to contribute to industrial and scientific developments.
The curriculum balances essential fundamentals—such as structural mechanics, fluid dynamics and flight mechanics—with applied subjects and forward-looking topics. Teaching includes modern formats and close, hands-on learning opportunities: small face-to-face tutorials on subjects like additive manufacturing or cockpit design give students direct access to experts and intensive practical learning. The programme culminates in a scientific Master’s thesis, with course work designed to develop the skills needed for independent research and system-level engineering solutions.
To help prospective applicants assess fit, an online self-assessment tool is available, and current students share their experiences via student testimony channels. For full course content and detailed module descriptions, consult the programme’s course details on the university website.
Requirements / entry expectations
Overview
The curriculum is built to let you tailor your MSc in Aerospace Engineering around your interests while ensuring strong core technical depth. You pick one fundamentals course and one digitalisation course from small prescribed lists, then choose from an extensive set of aerospace core electives and engineering/science electives. Several modules cover aerodynamics, propulsion, structures, space systems, mechatronics and testing, and a few courses are taught in German — plan accordingly if your German is limited.
Key modules and learning outcomes
Standout modules include Advanced Fluid Mechanics I, Flight Propulsion, Composite Structures, Flight Mechanics II, Avionics System Safety, Foundations of Space Systems and Space Systems and Operations, plus Lightweight Engineering and Mechatronic Systems courses. Together these modules give you advanced theoretical knowledge (e.g., compressible flow, turbulence, structural integrity), hands‑on experimental and measurement skills (laser measurement technology, virtual testing, laboratory tutorials), and practical systems competences (avionics safety, satellite navigation, space operations). Digitalisation and machine‑learning options prepare you to apply modern data and software methods to design, testing and production. Overall outcomes include the ability to model and simulate aerodynamic/structural/propulsion problems, evaluate system safety and performance, work in multidisciplinary teams, and carry out research or industry projects up to a six‑month Master’s thesis.
Structure and project options
Beyond coursework, the programme supports applied learning through team design projects on current research topics, a 12‑week external project with an industry partner, laboratory tutorials and free elective (general studies) courses from other departments. The capstone is a six‑month, full‑time Master’s thesis. You may also select additional courses from the Mechanical Engineering Department where permitted. Lecture offerings can change over time—detailed module descriptions and the current list of lectures are available on the programme website download area.
Curriculum requirements (selection rules and modules)
Compulsory Elective Courses Ia – Fundamentals (choose one of three)
Compulsory Elective Courses Ib – Digitalisation (choose one of three)
Compulsory Elective Courses II – Core Electives from Aerospace Engineering (examples include)
Compulsory Elective Courses III – Electives from Natural Sciences and Engineering in the field of Aerospace Engineering (examples include)
Additional elective/project options
Notes
Applicants should hold a completed undergraduate degree in Mechanical Engineering or Aerospace Engineering, or a directly comparable qualification. This requirement ensures you have the fundamental engineering background needed for graduate-level study in aerospace topics.
For international applicants, “equivalent” refers to a bachelor’s or comparable first degree from a recognized institution that demonstrates the same level of technical and mathematical training as the listed programs. Admissions staff will evaluate whether your prior degree matches the program’s expectations, so be prepared to provide official transcripts and credential documentation if requested.
Winter Semester (International)
Your complete application package (also including an up-to-date transcript of records and the equivalence list of our department) must have been received in paper form by TU Darmstadt by the dates listed for "Aerospace Engineering" onthis website.Please always check the information on the website of theinternational admission office!Applicants with a German school leaving certification (Abitur) and a German Bachelor's degree should apply at TU Darmstadt via thestandard track.Applications will be processed immediately, and we strongly encourage early applications. During the formal entrance examination, proof of the required entrance competencies is verified on the basis of the submitted documents. If the entrance competencies cannot be clarified positively or negatively during the formal entrance examination, a substantive entrance examination will then be conducted. In this case, we will invite you to the exam by e-mail.
Graduates are prepared for technical and engineering roles across the aerospace sector and adjacent industries, including aerodynamic and structural design, flight mechanics and control, propulsion systems, avionics and systems engineering, space systems and operations, and computational fluid dynamics/CAE. The curriculum’s mix of fundamentals (structural mechanics, fluid dynamics, flight mechanics) and applied electives equips students for positions as design or systems engineers, structural/propulsion analysts, flight-test engineers, or roles in satellite and space operations, as well as for technical positions in suppliers and integrators.
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