Space Engineering

Overview

This English-taught MSc programme prepares you to contribute to the new era of space technology. You will gain a broad mix of theoretical knowledge and hands-on skills in modern space systems, while being able to focus on topics such as human space exploration, space robotics, sustainability of space applications and related areas. Located in Bremen, the programme benefits from a dynamic regional aerospace ecosystem of companies and research institutes that can help accelerate your career.

Study structure and specialisation

The degree follows a four-semester structure. During the first two semesters you build a solid foundation across the core disciplines of space engineering. In the third and fourth semesters you choose from an extensive range of electives, complete a project and write a Master’s thesis, enabling you to tailor the curriculum to your interests and career goals. The programme is designed to go beyond generic aerospace degrees by offering focused, interdisciplinary training that prepares graduates as specialists in space engineering and related aeronautical fields.

Interdisciplinary profile and international intake

The programme is hosted by the faculty of production engineering (FB4) and is supported by departments such as physics, electrical engineering, mathematics and computer science, ensuring broad technical depth. It is open to students from a variety of undergraduate backgrounds who wish to become experts in space engineering. Teaching and assessment are conducted in English, making the course suitable for international applicants.

Admission requirement (key points)

• Online entrance exam covering engineering mechanics, fluid mechanics and thermodynamics
• Exam is held between one and two weeks after the application deadline
• Further details about the test are provided upon application

Program structure and focus The Master’s runs over four semesters (two academic years) and is delivered in English — both lectures and the Master’s thesis are in English. The degree requires a total of 120 credit points (CP), split between foundation modules (30 CP), compulsory modules including a project (36 CP), elective modules (24 CP), and the Master’s thesis (30 CP). The curriculum is designed to build on undergraduate engineering, physics or mathematics knowledge and steer students toward careers in the aerospace sector.

Core content and key modules Compulsory modules consolidate and extend students’ bachelor-level grounding while introducing space-specific fundamentals. Introductory modules such as Space Flight Theory and Space Environment & Testing establish the basic principles needed for the later, more advanced subjects: Satellite Systems and Subsystems. One of the courses is taught using the concurrent-engineering facility run by the local DLR institute, giving hands-on, systems-level experience in space systems design.

Electives, projects and learning outcomes Elective courses apply space-engineering methods to concrete satellite missions and allow students to deepen specialisms relevant to industry or research. The compulsory project and the Master’s thesis develop practical and research skills in system design, testing and analysis. Graduates are expected to be proficient in satellite-system engineering, understand the challenges of the space environment and testing, work effectively in multidisciplinary teams (including concurrent-engineering settings), and be prepared for professional roles in the aerospace industry or further research.

Admission, structure and key facts (concise)

• Entry requirements: Bachelor’s degree in engineering, physics, mathematics or techno-mathematics with at least 180 CP.
• Language: English instruction; minimum English proficiency level C1 required.
• Duration: 4 semesters (two years).
• Total workload: 120 CP, allocated as:
  • Foundation modules: 30 CP
  • Compulsory modules (including project): 36 CP
  • Elective modules: 24 CP
  • Master’s thesis: 30 CP
• Notable modules: Space Flight Theory; Space Environment & Testing; Satellite Systems; Subsystems; a concurrent-engineering course delivered in cooperation with the local DLR institute.

The programme prepares graduates for technical and systems roles in the aerospace sector—examples include satellite systems engineering, subsystem design and integration, mission planning, space robotics and test & qualification for the space environment. The curriculum’s emphasis on hands-on projects and close ties with local institutes and companies in Bremen helps graduates transition into industry positions or applied research roles.

Graduates are also well positioned to continue into doctoral studies in space technology or related engineering fields. International students benefit from the programme’s English instruction and Bremen’s dense network of research centres and aerospace firms for internships and early-career opportunities.