This interdisciplinary master's programme explores the mathematical foundations, models and practical applications involved in transmitting and processing information. You will study communication techniques and algorithms alongside methods for integrating these solutions into microelectronic hardware and software. Typical application areas include mobile and multimedia communication, coding and data compression, security, image processing and medical systems.
The curriculum balances theoretical analysis with hands-on system design: topics range from signal and information theory to circuit and device design, enabling you to design end-to-end solutions that span algorithm, software and hardware layers. Modules also treat contemporary methods such as machine learning and numerical matrix computation, preparing you to tackle complex problems in both research and industry settings.
Core technical lecture areas include:
Recommended background / entry expectations:
Overview
This international Master’s programme runs over four semesters. The first three semesters are dedicated to taught elements — lectures, seminars and project work — while the fourth semester is reserved for an independent Master’s thesis. The sequence is designed to combine structured instruction with hands-on experience, culminating in a substantial research or design project.
What you will gain
Across the coursework and project phases you will build advanced knowledge in information and communication engineering and apply that knowledge in practical, team-based or individual projects. The final thesis semester gives you the opportunity to carry out in-depth research or an applied development task, demonstrating your ability to plan, execute and report on a complex engineering problem — a key qualification for industry or further academic research.
Key components (modules)
Program facts
Key learning outcomes
This is a selective, excellence-level Master's programme that requires applicants to already have a strong foundation in core engineering topics as well as in information technology and communications. To be prepared for the coursework, candidates should demonstrate proficiency in key technical areas, including mathematics and statistics, physics, communication technology and systems, signal theory, software engineering, computer architecture, and electronics/semiconductor devices.
A Bachelor's degree (or an equivalent qualification) in a related discipline is required. All submitted degree certificates and transcripts are reviewed by an admissions committee to confirm that your prior studies provide the necessary background for this programme. Degrees commonly providing the right preparation include electrical engineering, computer engineering, computer science, and communications engineering — but holding one of these degrees does not automatically guarantee admission. Applicants with other undergraduate majors will still be considered if their transcripts show adequate coverage of the required subject areas.
Winter Semester (International)
15 July 2026
Winter Semester (EU/EEA)
15 July 2026
Graduates are prepared for technical and development roles in industries that design and implement communication and signal-processing systems — for example, positions in mobile and multimedia communications, embedded systems and microelectronics companies, medical device firms, and organisations working on coding, compression and security solutions. Typical roles include communications engineer, systems designer, embedded systems developer, signal/image processing engineer and R&D specialist.
The programme also provides a solid foundation for continued academic research (PhD) thanks to its strong theoretical components and the research-focused Master’s thesis.
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