Oldenburg MSc Engineering of Socio-Technical Systems

What is University of Oldenburg MSc Engineering of Socio-Technical Systems?

Oldenburg’s MSc Engineering of Socio-Technical Systems is a 2 years, 120 ECTS programme. It brings computing and psychology foundations together with socio-technical systems engineering before independent final work. The full planning total is INR 28.61 lakh. For an Indian applicant, the first decision is whether the sequence matches prior study and intended work.

The official description confirms an on-campus academic sequence with taught study, choice and independent assessment. That balance defines this programme more clearly than its award label alone. The examination regulation controls credit recognition, module order and the final award.

How much does MSc Engineering of Socio-Technical Systems at the University of Oldenburg cost?

For planning, use EUR 25,832 plus INR 26,400, or about INR 28.61 lakh, across 24 months. The total uses the published programme fee, current semester contribution, the university's EUR 1,000 monthly living estimate, APS and the adult national visa fee.

The first-year blocked-account amount remains the student's living money. It is not added again above the full living plan. Converted at EUR 1 = INR 109.7500 using the European Central Bank reference rate for 3 September 2026. Flights, deposits, translations, uni-assist fees and bank spreads are excluded.

Proof of sufficient funds is required for the student visa.German Missions in India study visa funding rule

The Oldenburg semester contribution, fee schedule and ECB reference file support the calculation.

The current programme fee is EUR 0. Standard Oldenburg degree programmes have no tuition, but the published fee schedule names separate charges for three programmes in this cluster. The exact enrolment and programme invoice control the amount due.

The university publishes a EUR 1,000 monthly living estimate. This plan covers 24 months. Rent deposits, travel and personal spending can still move the cash requirement above it.

The Winter 2026/27 semester contribution is EUR 457.90. A later semester can change this charge, so the table is a planning base rather than a fee guarantee.

Rupee totals change with exchange rates even when euro charges do not. Part-time earnings are excluded because a job, work schedule and income are not guaranteed.

Can an Indian applicant enter University of Oldenburg MSc Engineering of Socio-Technical Systems?

An Indian application is credible when the transcript clearly proves computing, cognition or related preparation. Oldenburg evaluates degree content, accepted language evidence and programme documents separately. APS and detailed module descriptions help the admissions team interpret the qualification, but they don't replace a missing academic prerequisite.

The official admission page for MSc Engineering of Socio-Technical Systems gives the binding subject screen. For more details see Foreign language skills on this page. Bachelor’s degree or equivalent qualification in a subject closely related to Computing Science or another related discipline, in Business Information Systems, in Psychology or Cognitive Sciences, or another subject which is closely related to the content covered in the Master’s programme and special expert knowledge (see admission regulations). English language proficiency at level C1 of Common European Framework of Reference for Languages (CEFR). If applicable, evidence of relevant professional experience or internships If applicable, information regarding study-related experience abroad Completed form for the application documents

For this programme, the practical comparison is between completed modules and computing and psychology foundations. A degree name on its own doesn’t establish that match, particularly when an adjacent discipline contains little of the named preparation.

An Indian file should keep original credits, grades and module descriptions visible. APS verifies the academic record, while the University of Oldenburg still makes its own admission decision for MSc Engineering of Socio-Technical Systems.

How should an Indian student apply for Oldenburg MSc Engineering of Socio-Technical Systems?

The selected intake is Winter 2027/28, with 30 Apr 2027 as the published planning deadline for this route. Indian degree holders normally apply through uni-assist and include APS evidence, unless the programme names a separate application channel. Start the document sequence well before the closing date.

Subject fit, APS, uni-assist or the named programme route, admission decision, then student visa

The allowances are Nbyula planning estimates, not processing times published by University of Oldenburg.

The exact programme application page controls the route. Applicants with an international degree use the course-specific Oldenburg route and normally submit through uni-assist. Indian qualifications require APS evidence.

The checked source supports The published planning deadline is 30 April 2027 for the selected winter route. Deadline treatment can differ by nationality, degree origin and entry semester, so do not substitute another Oldenburg programme’s date.

The complete file normally includes academic records, grading information, language evidence, identity documents and translations where applicable. Early submission leaves time for a document defect without changing the deadline.

Admission and the student visa are separate decisions. An offer does not guarantee a visa, housing or arrival before enrolment.

What jobs can follow University of Oldenburg MSc Engineering of Socio-Technical Systems?

The published curriculum most directly supports work as cyber-physical systems engineer, human factors specialist or research engineer. These are study-linked directions, not placement promises. Oldenburg doesn't publish an audited placement rate or salary distribution for this exact programme, so prior experience and competitive recruitment remain material.

For MSc Engineering of Socio-Technical Systems, the university publishes no exact placement rate or salary distribution for this programme. The legal job-search period is time to seek suitable work, not an employment promise.

The programme career description connects the course with these fields. Graduates of this Master’s degree programme go on to work in many different industry areas in which interactive, cooperative and cyber-physical systems (CPS) are developed and optimized. Such systems make significant contributions to our future security, efficiency, comfort and health, and are essential technologies in the economically important domains of Smart Mobility, Smart Maritime, Smart Grid, Smart Production, Smart Home and Smart Health. Although interactive and collaborative CPS technologies are already being introduced in many areas, the development of such technologies often occurs on an ad hoc basis, tends to be specific to a particular domain and focuses more on the technology itself. This area is yet to reach the same level of maturity as the established engineering sciences, which have progressed from domain-specific to general technology design principles, thus facilitating the development of products such as general-purpose programming languages, hardware platforms and operating systems. As such, specialists in this area are in high demand; graduates have excellent career prospects in both the fundamental development of CPS and in their domain-specific applications. Graduates of this Master’s degree programme often go on to work as usability or safety engineers, human factors professionals, interaction developers, or developers of user interfaces and cooperation strategies for future interactive and cooperative information and cyber-physical systems. Successful students will find job opportunities in many different industry areas in which interactive, cooperative and cyber-physical systems (CPS) are developed: from mobile application development to partially autonomous technical systems, from web services, automotive and aerospace systems to the development of medical devices. The three tracks of the Master’s degree programme give the students the opportunity to specialize in different aspects of the design and development of socio-technical systems. Students who choose to follow the Human Computer Interaction track focus on the design of interactive systems in the context of user-centred design processes and apply the relevant methods and principles to develop usable interactive systems. Students of the Embedded Brain-Computer Interaction track often go on to develop sensors and actuators for interactions with the human brain as well as assistance systems that use brain computer interactions. Graduates of the Systems Engineering track often work in research, development and safety analysis of cyber-physical systems and have successful careers in consulting, system analysis, design, and implementation in many technical and commercial sectors. This programme addresses the high demand for specialists both in the fundamental development of socio-technical and safety-critical systems as well as the application of these systems in specific domains. Many graduates also choose to continue their academic research in this up-and-coming discipline by completing a PhD, either in Germany or abroad.

The route from computing and psychology foundations to master’s thesis and colloquium explains why cyber-physical systems engineer is a defensible direction. It doesn’t show that every graduate receives that title, enters the same sector or earns the same salary.

After successful study, Germany’s Residence Act section 20 can permit up to 18 months for a qualifying job search when the graduate has sufficient funds. That period isn’t an employment, sponsorship or permanent-residence guarantee.

Who is University of Oldenburg MSc Engineering of Socio-Technical Systems for?

The strongest fit is a graduate whose prior study supports computing and psychology foundations and whose intended work connects with cyber-physical systems engineer. An adjacent-field applicant needs a written module-level ruling. A candidate missing the stated preparation should resolve that gap before paying for verification, application or relocation.

A strong shortlist starts with the academic sequence from computing and psychology foundations to socio-technical systems engineering. That sequence suits someone who wants to use the master’s for cyber-physical systems engineer rather than only collect a broad award title.

An adjacent record needs a faculty ruling because Oldenburg assesses subject content. The application is stronger when every relevant module shows its original credit value, assessment and syllabus rather than relying on a self-created equivalence.

Someone whose goal sits outside cyber-physical systems engineer, human factors specialist, research engineer should compare a different syllabus. The programme’s value depends on wanting its actual academic route, not merely the University of Oldenburg name.

What does the University of Oldenburg MSc Engineering of Socio-Technical Systems curriculum contain?

The current published 120 ECTS curriculum is organised around Computing and psychology foundations, Socio-technical systems engineering, Practical specialisation, Master's thesis and colloquium. Current regulations control sequencing and availability. Read the credit pattern as the course's academic balance before choosing a specialisation route, while the current regulations control sequencing and availability.

The note “Published curriculum area” applies to 4 components in this table.

• Complete the approved 120 ECTS programme
• Follow the examination regulations for compulsory and elective credits
• Module availability and sequencing can vary by semester

The published credit groups give MSc a distinct academic centre rather than a generic master’s label. In particular, Computing and psychology foundations prepares the later master’s thesis and colloquium, so the sequence cannot be reduced to a list of interchangeable electives.

The published groups include Computing and psychology foundations, Socio-technical systems engineering, Practical specialisation, Master’s thesis and colloquium. Their credit values show how the programme balances required study, choice and independent work. An elective heading does not guarantee that every named class runs in a chosen term.

Module availability, sequencing and recognition remain subject to the current examination rules and semester catalogue. This is the curriculum decision that deserves attention before enrolment. The current examination regulations and module catalogue govern the final study plan, credit recognition and thesis route.

Should an Indian student shortlist University of Oldenburg MSc Engineering of Socio-Technical Systems?

Shortlist MSc Engineering of Socio-Technical Systems when computing and psychology foundations matches both your academic record and intended work. The recommendation is conditional because Oldenburg still checks subject content, language proof and documents. Resolve the module fit in writing before paying any application or relocation cost.

The strongest case connects prior preparation in computing and psychology foundations with a credible plan for cyber-physical systems engineer. That is more specific than applying because the award title sounds related to a previous degree. The official course description supplies the academic detail. The Master’s degree programme EngSTS consists of four semesters (two years) and offers excellent opportunities for students to specialize in various focus areas and tracks. Fundamental Competencies in Computer Science and Psychology (18 ECTS credits, first semester): Introduction to the relevant mathematical-logical and computer science principles and introduction to the relevant cognitive, psychological and empirical principles (compulsory modules) Foundations of Socio-Technical Systems Engineering (24 ECTS credits): principles of neuroscience, psychology and computer science (compulsory modules) Accentuation Practical (24 ECTS credits): specialization, students select specialization tracks (optional) Accentuation CS: specialization, students select a specialization from one of the core computer science courses (optional) Accentuation Domain: in-depth insights into the requirements and particularities of different accentuation domains (automation and robotics, automotive, maritime, medical technology, optional) Master’s thesis (30 ECTS credits) including final colloquium in the last semester During your studies, you will gain an in-depth understanding of the principles and methods of computer science and cognitive sciences, as well as their applications, which are necessary for the development of reliable socio-technical systems. By the end of the programme, you will understand the methods, problems and results of the latest research in this field. You will be able to evaluate theories and methods, process models, tools and systems according to scientific criteria and use them to solve practical problems. You will then be able to apply this knowledge to solve complex and new problems. You will gain expert knowledge about the design, specification, implementation, optimization, validation, operation, further development and safety analyses of complex socio-technical systems, and be able to apply and manage the application of this knowledge to solve problems systematically. You will learn how to work in transdisciplinary teams to determine and document the requirements of existing and new accentuation domains, to translate them into appropriate sociotechnical system solutions, to implement those solutions and assess their characteristics. Human Computer Interaction (HCI): This track equips students with the necessary theoretical knowledge and practical skills to design, implement and evaluate future interactive systems in the context of the design of complex technical systems. It combines basic knowledge of usability with knowledge from psychology to conceptualize and design interactions between humans and technology. Embedded Brain-Computer Interaction (EmbeddedBCI): This track provides students with the necessary theoretical knowledge and practical skills to design and evaluate complex technical systems with both human and technical players as well as to use brain-computer interfaces in cyber-physical systems. This course covers the principles of system design, neurocognitive psychology and signal processing as well as a wide range of accentuation domains, which emphasizes the extent to which the knowledge and skills learnt during this course can be transferred to and applied in different areas. Systems Engineering (SE): This track equips students with the necessary theoretical and practical knowledge to analyse, design and develop large cooperative networks of safety-critical, socio-technical systems, i.e., large systems whose limits are not bound by other systems. At the end of this course, students will be able to recognize, analyse and describe the relationships between individual subsystems in the context of an integrated system as well as the interactions between subsystem properties and integrated system properties. For more information about the tracks, see www.uni-oldenburg.de/informatik/msc/engSTS The current official module catalogue names inf960 Fundamental Competencies in Computing Science I: Signals and Dynamical Systems; inf961 Fundamental Competencies in Computing Science II: Mathematics; inf962 Fundamental Competencies in Computing Science III: Algorithms and Computational Problem Solving; inf963 Foundations of STS Eng.: Cognitive Processes; inf964 Foundations of STS Eng.: Psychology and Philosophy of Technology; inf965 Foundations of STS Eng.: Systems Engineering; inf966 Foundations of STS Eng.: Statistics and Programming; inf970 Fundamental Competencies in Psychology I: Psychology; inf972 Fundamental Competencies in Psychology III: Experiments and Studies; inf977 Fundamental Competencies in Psychology II: Experimental Psychology (& Cognitive Processes); inf100 Human-Computer-Interaction; inf131 Advanced Topics in Human Computer Interaction; inf174 Special Topics in Media Informatics and Multimedia Systems I; inf175 Special Topics in Media Informatics and Multimedia Systems II; inf203 Embedded Systems I; inf301 Machine-oriented Systems Engineering; inf305 Medical Technology; inf307 Robotics; inf308 Microrobotics II; inf336 Application Area Automotive; inf338 Design of Autonomous Systems; inf339 Industry 4.0: Digitalization in Industrial Manufacturing; mar364 Zeitreihenanalyse; inf535 Computational Intelligence I; inf536 Computational Intelligence II; inf537 Intelligent Systems; inf604 Business Intelligence I; inf607 Business Intelligence II; inf650 Transportsysteme; inf663 Application Area Maritime; inf657 Product Engineering; inf5122 Learning-Based Control in Digitalised Energy Systems; inf5408 Angewandtes Deep Learning; inf5452 Current Topics in Trustworthy Machine Learning; inf204 Embedded Systems II; inf300 Hybrid Systems; inf311 Low Energy System Design; inf331 Automated and Connected Driving; inf332 Practice Robotics; inf334 System Level Design; inf340 Uncertainty Modeling for Control in Digitalised Energy Systems; inf341 Robust Control and State Estimation in Digitalised Energy Systems; inf456 Realzeitsysteme; inf973 Psychological practicum fNIRS, EEG; inf974 Human Computer Interaction and Brain Computer Interfacing; inf502 Simulation; inf900 Projektgruppe; inf903 Research Project I.

The principal rejection risk is a transcript that cannot support the programme's named academic foundation. Cost, housing, visa and employment are separate decisions after academic fit has been established.

Decision checkscomplete cost · entry fit · application timing · outcome evidence

Sources

These sources support the programme, admission, cost and immigration information used on this page.

Sources checked on September 4, 2026. The next intake covered here is Winter 2027/28.