Overview This consecutive master's programme is designed for students who already hold a degree in Mechatronics or a closely related engineering discipline and want to deepen their understanding of networked systems used in Digital Production. Over three semesters you will focus on advanced, application-oriented topics that connect mechanical, electronic and software aspects of modern production technology. Teaching is delivered in English and emphasises practical, industry-relevant skills.
Structure and core topics Teaching is organised into four technology-focused study units that address key pillars of cyber-physical production: Modern Simulation Systems; Cooperative & Autonomous Systems; Innovative Human–Machine Interfaces; and Additive Manufacturing. Two interdisciplinary units complement these by exploring concrete application domains for Cyber‑Physical Systems and the Functional Safety of software-based control and automation systems. The curriculum balances technical depth with cross-disciplinary perspectives to prepare you for integration tasks across hardware, software and process domains.
Skills development and learning format In four of the eight modules, case studies put you into small teams to work on real-world scenarios. These exercises are intended to build your personal, social and professional competencies—collaborative problem solving, interdisciplinary communication and applied engineering decision-making—so you graduate ready for roles in research, development or industrial implementation of cyber-physical and digital production systems.
Study locations and further information The programme is delivered on-campus in both Cham (summer semesters) and Deggendorf (winter semesters). For detailed campus and study-location information see:
Requirements
This 18-month, three-semester master’s programme is taught entirely in English and begins in Cham. The curriculum combines core theory with hands-on case studies to build expertise in cyber-physical systems (CPS), mechatronics and advanced robotics. In the first semester you focus on foundational CPS topics—advanced robotics, autonomous systems, cooperative/autonomous system case studies, and advanced modelling and simulation including a dedicated mechatronic system simulation case study—giving you the skills to model, analyse and simulate complex integrated systems.
The second semester moves toward human-centred interaction and production technologies: human–machine interfaces (VR/AR) and a VR/AR case study, technologies and processes for additive manufacturing (AM) with an associated AM production case study, cyber-physical production systems using AM, and principles and design of functional safety. These modules train you to design interactive interfaces, apply modern manufacturing techniques, and ensure safety and reliability in interconnected systems.
In the third semester you consolidate learning through a subject-related elective, an advanced master’s module, and an independent master’s thesis. The master’s seminar has two parts—a Master’s colloquium (2 ECTS) and a seminar series titled “Career Start into German Technology Companies”—which support scientific presentation skills and transition into the German tech industry. Overall learning outcomes include the ability to design and simulate mechatronic and cyber-physical systems, integrate autonomous and robotic components, apply VR/AR and additive manufacturing methods, and implement functional safety concepts for industry-ready solutions.
Key programme facts and structure
To be eligible for this Master's programme you must have completed a first degree (a basic course of study) at a domestic or foreign university worth at least 210 ECTS credits. The previous degree should be in industrial engineering, technical physics, mechanical engineering, electrical engineering, mechatronics, or a closely equivalent discipline.
The programme’s examination board evaluates submitted documents and determines whether your prior degree is equivalent to the required qualification. Applicants whose undergraduate training comes from countries that are not party to the Lisbon Recognition Convention are encouraged to strengthen their application by submitting international test scores (GATE or GRE General) and a recognised German language certificate.
In some cases, you may also be asked to demonstrate your professional suitability through an aptitude assessment; whether this is required will be decided on the basis of your application materials.
Winter Semester (International)
15 June 2026
Summer Semester (International)
1 December 2026
Winter Semester (EU/EEA)
15 June 2026
Summer Semester (EU/EEA)
1 December 2026
Graduates are prepared for roles in industry and research that require interdisciplinary expertise in mechatronics, automation and digital production. Typical positions include systems engineer for automation and robotics, developer of cyber-physical production systems, specialist in additive manufacturing workflows, HMI/UX engineer for industrial systems, and functional safety engineer for software-based control systems.
The programme’s strong emphasis on case studies, simulation and applied project work makes graduates attractive to manufacturing companies, automation suppliers, robotics firms, R&D departments and technology consultancies that adopt Industrie 4.0 and digitalisation strategies.
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