This Master's programme trains students to plan, develop and operate modern energy systems with an emphasis on renewables. Rather than concentrating on individual technologies, the course highlights how different generation, storage and distribution technologies interact with one another and with patterns of energy demand. Graduates are expected to leave with practical and analytical skills that enable them to expand professional expertise and to contribute in international, multicultural workplaces.
The curriculum combines laboratory work, system analysis and policy- and market-oriented perspectives so students gain both technical and contextual understanding. The programme is taught in English and awards a Master of Science in the field of Electrical Engineering. A research thesis is a core component, and students may also gain workplace experience through an internship; there is an optional dual-study pathway in which students complete two internships during the first and second semesters.
Key programme elements and requirements
Language of instruction: English
Degree awarded: Master of Science (Electrical Engineering)
Overview
This full-time master's programme runs over three theoretical semesters, with the final semester dedicated mainly to completing a research-based Master's thesis accompanied by seminars. The curriculum delivers a deep theoretical and technical grounding in energy systems alongside practical skills through lab work, company and trade fair visits, and industry-set project and thesis topics (notably within the dual programme). Language and culture courses are available while the university is in session—international students can take German courses and domestic students can study another foreign language—though these language classes are offered alongside but not included in the formal curriculum.
Curriculum structure and student experience
In the first semester you build core knowledge and competencies in energy engineering: numerical mathematics and simulation methods are taught, students carry out individual project work to foster independent research skills, and they design an urban-area energy system. The second semester shifts focus to off-grid and industrial energy systems; system courses are complemented by a module covering energy policy and energy markets. The third semester is reserved for the Master's thesis and related seminars, allowing you to integrate technical know-how, analytical methods and applied experience into a substantial independent project.
Key modules and learning outcomes
Learning outcomes (what you will be able to do)
Program format — essential facts
This master’s programme requires a relevant technical Bachelor's degree and demonstrable experience in energy-related topics. Applicants are assessed on their academic record and the evidence they provide of practical or research experience in energy; there is no interview and no written entrance exam. If you studied outside Germany, a preliminary document check via uni-assist is required before you submit your THI application. The university can only make a formal admission decision after it has reviewed your complete application documents.
If your Bachelor’s degree carries fewer than 210 ECTS but at least 180 ECTS, the examination board may approve an additional 30 ECTS based on qualified work experience that meets the rules for a second practical semester at Bavarian applied universities (§ 13 RaPO) and is certified by an employer. All supporting documents for experience and education must be uploaded to the THI application server; your grades together with your documented experience are used to calculate a combined admission score. For guidance on German recognition and qualification checks, use the uni-assist tools and consult the study and examination regulations (SPO) available on the university’s legal pages.
Admission requirements (concise)
Useful resources
Winter Semester (International)
15 June 2026
Winter Semester (EU/EEA)
15 July 2026
Graduates are prepared for technical and managerial roles in the renewable energy sector, such as energy systems engineer, project developer, energy manager, simulation/modelling specialist, or consultant for utilities and engineering firms. The combination of system design, market and policy understanding, and practical experience also suits positions in research and development, start‑ups, and technology providers focused on hydrogen, storage, microgrids and urban energy planning.
The programme’s international orientation and industry links make it suitable for work in multinational companies, engineering consultancies, public authorities and NGOs. Learning German is recommended to expand internship and employment options in Germany and German‑speaking companies.
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