Description This online Master of Science in Wind Energy Systems offers a broad, flexible curriculum built from 28 modules that students can combine to match their interests. Core courses establish the technical foundations of wind turbines: electrical and mechanical components, electrical engineering principles, and numerical modelling of flows. Hands-on simulation skills are developed using tools such as MATLAB and OPENFOAM so you can model and analyse wind-energy systems and their aerodynamics.
After the fundamentals, you choose one of two specialisation tracks. Energy System Technology (EST) focuses on turbine energy-system hardware and operation—topics include nacelle design, turbine control and operational management, grid integration of renewables, energy storage and aspects of energy meteorology. Simulation and Structural Technology of Wind Energy Systems (SST) concentrates on rotor-blade design, structural and material behaviour (including soil mechanics for siting) and detailed aerodynamic flow-field analysis. Non-engineering modules cover project management for wind-farm construction and optional legal subjects such as Contract Law and Energy Law.
The programme is structured at a master’s level that qualifies graduates to continue into doctoral research; many modules maintain a strong academic standard suited to research careers. At the same time, the curriculum is industry-oriented and prepares students for roles in the wind sector—typical career destinations include R&D departments at turbine manufacturers and planner or project-developer offices.
Key facts and admission notes
Curriculum overview This online MSc in Wind Energy Systems is a 120-credit Master’s degree structured to build both broad foundations and deep specialisation in wind energy engineering. The programme combines core fundamental modules, a choice of one of two technical specialisations — Simulation and Structural Technology (SST) or Energy System Technology (EST) — and a research-focused Master’s thesis worth 30 credits. The modular layout provides room for targeted skills development as well as cross-disciplinary selection to suit individual career goals.
Key modules and learning outcomes At least 30 credits come from Fundamental modules that establish the engineering principles and domain knowledge needed for wind energy systems. A further minimum of 30 credits must be taken within a single specialisation (SST or EST), enabling you to develop advanced competencies in areas such as structural simulation, load analysis and design methods (SST) or power-conversion, grid integration and system-level energy engineering (EST). At least 12 credits are dedicated to Additional Key Competencies, which focus on transferable skills like project management, communication and professional practice. The remaining 18 credits can be freely chosen from both specialisations, the Additional Key Competencies, or Fundamentals, allowing you to tailor your course mix. The 30-credit Master’s thesis brings together research, analytical and project-execution skills to demonstrate your ability to carry out independent, advanced work in the field.
Diploma of Advanced Studies (DAS) pathway The programme also offers several Diplomas of Advanced Studies (DAS), each built from five selected modules of the Master’s curriculum. DAS students attend the same modules alongside MSc students, and successful DAS participants — or those still enrolled in a DAS — may transfer into the full Master’s programme in October of any year. This provides a clear, embedded pathway for further study or for layering specialised credentials onto professional experience.
Credit and module requirements (concise)
This master's programme expects applicants to have a solid technical or scientific undergraduate background and demonstrated readiness for graduate study. You must hold a relevant first degree and show quantitative competence (especially in mathematics). In addition to academic records, the selection process looks for a concise motivation statement and practical or professional experience. Proof of English ability and evidence that you met your country’s higher-education entrance rules are also required.
Work experience of at least one year after completing your first degree is normally mandatory; in exceptional cases the examination board may accept experience gained before finishing that degree. For English language requirements and accepted proof (tests and minimum scores), follow the programme’s published details.
Winter Semester (International)
1 September 2026
Winter Semester (EU/EEA)
1 September 2026
Graduates are prepared for technical and research roles across the wind-energy sector. Typical positions include R&D engineer roles at wind turbine manufacturers, technical specialists in planning and project development offices, and consultants in wind farm design, grid integration and operational management. The programme’s strong methodological and simulation training also makes graduates suitable candidates for continued academic research and doctoral studies.
Because the programme combines technical, managerial and legal modules, alumni may additionally pursue roles in project management, regulatory affairs, and energy policy related to renewable integration and storage solutions.
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