Satellite Technology – Advanced Space Systems (SaTec)

Program overview

This MSc trains students in interdisciplinary space systems engineering with a strong emphasis on turning space mission concepts into reality. Backed by the Elite Network of Bavaria, the programme is delivered in close cooperation with nearly all Bavarian space organisations across universities, research institutes and industry, so students work on real space research projects throughout their studies.

Located in Würzburg’s vibrant space ecosystem, students benefit from a region that already operates 13 satellites in orbit and is planning some 30 additional small satellites — making Würzburg one of Europe’s leading centres for small-satellite research and development. Compared with traditional mechanical-engineering programmes, this course places greater emphasis on electronics and computer-science methods to prepare graduates for the adaptive space systems that are in high demand across research and industry.

The curriculum and research projects concentrate on space-systems engineering and cross-disciplinary topics such as space dynamics, attitude and orbit control, computer science, robotics, telecommunications, remote sensing, electrical and mechanical engineering, and control engineering. Expect hands-on, mission-oriented work and close links to industry and research partners that enhance employability in satellite and space-systems careers.

Entry considerations (check the university website for formal requirements)

• Programme language: English — applicants should be prepared to study and work in English.
• Recommended background: electronics, computer science, mechanical or electrical engineering, or a closely related technical discipline.
• The programme involves practical, project-based research in collaboration with Bavarian space organisations and industry.
• For official admission criteria, application deadlines and required documents (e.g., degree certificates, transcripts, proof of language proficiency), consult the university’s admissions information.

Overview The curriculum is organized around the three core phases of space system development: system analysis (first semester), system design (second semester) and system implementation (third semester). The fourth semester is devoted to writing and defending the Master's thesis, in which students put into practice the concepts and products developed during the taught semesters. Course delivery combines lectures, exercises, seminars and laboratory work to balance theory and practice.

Emphasis is placed on hands‑on hardware experience. Students carry out hardware design classes both at the university and with partner organisations, and there are opportunities to pursue individual research projects with partner institutions such as space agencies, research centres and industry. This mix prepares graduates to translate analytical and design skills into implemented space hardware and documented research outcomes.

Key modules

• System analysis (first semester): requirements, mission analysis and system-level trade-offs
• System design (second semester): subsystem architecture, detailed design and integration planning
• System implementation (third semester): hardware realisation, testing and verification
• Master’s thesis (fourth semester): independent implementation or research project consolidating programme learning
• Teaching formats: lectures, problem exercises, seminars and hands-on laboratories
• Practical opportunities: hardware design classes at university and partner organisations; individual research projects with space agencies, research institutes or industry partners

Learning outcomes

• Ability to perform system-level analysis and derive mission and technical requirements
• Competence in designing satellite systems and their subsystems, including trade-off and integration considerations
• Practical skills in implementing, testing and validating space hardware prototypes
• Capability to carry out independent research, document results and complete a Master’s thesis
• Experience collaborating with academic and industry partners, preparing for roles in space engineering or research

Program requirements (student commitments)

• Complete three taught semesters covering analysis, design and implementation phases
• Actively participate in lectures, exercises, seminars and laboratory work
• Engage in hands-on hardware design classes offered by the university and partner organisations
• Undertake and submit an independent Master’s thesis in the fourth semester
• Option to pursue individual research projects with partner institutions (space agencies, research centres, industry)

Graduates are prepared for roles in the space sector with employers such as space agencies, research institutes and aerospace industry partners. Typical positions include spacecraft/systems engineer, mission designer, attitude and orbit control specialist, satellite payload engineer, communications and remote-sensing engineer, robotics engineer, and roles in satellite integration, testing and operations.

The programme's strong ties to Bavarian space organisations and industry, combined with hands-on lab work and partner research projects, enhance employability in both industry and academia. The curriculum's focus on electronics, computer science and systems engineering also opens opportunities in broader high-tech fields requiring embedded systems, control, and telecommunication expertise.