This MSc curriculum begins with a focused first semester of compulsory core modules across two pillars: Communications Systems (for example, Channel Coding and Information Theory) and Communications Electronics (for example, Electronic Design Automation and System‑on‑Chip Technologies). In the following semesters you tailor your studies by choosing electives tied to your preferred specialization, allowing you to deepen either systems‑oriented or hardware‑oriented skills.
Core and elective teaching is supported by a wide range of practical labs and seminars, ensuring hands‑on experience alongside theory. Typical topics in the Communications Systems strand include Channel Coding, Mobile Communications, Optical Communications, Cryptography and Network Security, Image and Video Compression, Multimedia Communications, Machine Learning for Communications, and MIMO Systems. The Communications Electronics strand offers courses such as Electronic Design Automation, Analog/Mixed‑Signal Circuit Design, Testing of Digital Design, Embedded Systems, and Nanoelectronics.
The programme also includes a required nine‑week research internship undertaken in a German company or at another TUM Chair, providing direct industry or academic research exposure in Germany. It concludes with an individually supervised Master’s thesis carried out over six months during the fourth semester.
Practical tip for international students: the internship and thesis present excellent opportunities to build professional networks in Germany and to gain research or industry experience relevant to future careers or doctoral studies.
Programme overview
This two-year Master of Science programme is organized across four semesters and combines taught coursework with substantial practical research. Students spend three semesters on advanced courses, followed by a nine-week research internship and a six-month Master’s thesis project. The balance of classroom study and hands-on investigation prepares graduates to tackle complex problems in modern electrical engineering with a focus on communications and electronics.
Key modules and learning outcomes
The curriculum centers on core modules in Communications Systems and Communications Electronics, giving students a deep understanding of signal transmission, system design, and electronic hardware that underpins communication networks. By completing the taught modules, internship, and thesis, students develop skills in analytical modelling, experimental design, and applied research. Graduates can expect to be capable of designing and evaluating communication systems, implementing electronic solutions, conducting independent research, and communicating technical results to both specialist and non-specialist audiences—preparing them for industrial roles or further academic study.
Programme structure and requirements
The program admits students who already hold a bachelor’s-level qualification or an equivalent degree in electrical/electronics engineering, information technology, computer science, or a closely related discipline. Crucially, the prior studies should have included a clear emphasis on communications engineering or substantial coursework in that area.
Applicants must also have demonstrated excellent academic performance during their undergraduate studies. In practice this means a strong transcript and academic record; international applicants should be prepared to document degree equivalence and the communications-related content of their prior studies (for example with transcripts, course descriptions, or official credential evaluations).
Winter Semester (International)
15 March 2026
Winter Semester (EU/EEA)
31 May 2026
Graduates are prepared for technical and research roles across telecommunications, semiconductor and embedded systems industries, such as communications systems engineer, RF/analog/mixed-signal design engineer, embedded systems developer, or R&D specialist. The combination of theoretical modules, practical labs, an industry-linked internship and a substantial Master’s thesis also provides a strong foundation for doctoral study.
Industry connections and the internship component increase employability in high-tech companies and research institutions. Many graduates move into product development, system design, network engineering, or continue in academic research and PhD programmes.
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