Eindhoven University of Technology

What you'll study

The programme is a research-oriented technical master that combines engineering fundamentals with specialised topics in energy conversion, storage, distribution and systems integration. Students follow a coherent curriculum of core courses, electives and a substantial final research project (master’s thesis) supervised by academic staff.

• Core topics: energy systems analysis and modelling, thermodynamics and heat transfer for energy applications, power electronics and control, and fundamentals of renewable energy technologies.
• Typical electives: advanced photovoltaics and wind energy, electrochemical energy storage (batteries and fuel cells), hydrogen production and utilisation, thermal energy storage, smart grids and demand-side management, energy market design and sustainability assessment.
• Practical components: laboratory courses and hands-on projects with experimental facilities, simulation assignments, team-based design projects and industry-aligned case studies.
• Research project (thesis): an individually supervised research thesis, often carried out in collaboration with research institutes, industry partners or within an academic research group, aiming to deliver novel technical solutions or systems analyses.
• Programme structure: the programme balances taught modules in the first part with increased elective choice and research activity leading to the thesis in the latter part, emphasising quantitative modelling, engineering design and systems thinking.

Entry requirements

Applicants normally hold a recognised bachelor’s degree in mechanical, electrical, chemical or materials engineering, applied physics, or a closely related technical discipline. A solid grounding in mathematics (calculus, linear algebra, differential equations), basic thermodynamics, fluid mechanics and introductory circuit theory is expected.

• Academic background: degree with substantial technical content; applicants with related backgrounds may be required to demonstrate competency through preparatory courses.
• English proficiency: non-native English speakers must demonstrate proficiency through an accepted English test or prior education in English, in line with university regulations.
• Supporting documents: transcript(s), CV, motivation letter and references. For some applicants, an interview or additional assessment of preparedness may be requested.

Career prospects

Graduates are equipped to work across industry, research and public sectors where engineering expertise in sustainable energy is required. Typical roles include design and development engineer, systems integration engineer, energy systems modeller, control and power electronics specialist, project engineer for renewable installations, and technical consultant in energy transition projects.

• Employment sectors: renewable energy companies, utilities and network operators, energy storage and battery manufacturers, the automotive and industrial sectors focusing on electrification, engineering consultancies and management consultancies, and technology start-ups.
• Research and academia: many graduates continue with doctoral research at TU/e or other institutions, or join national and international research institutes working on advanced energy technologies.
• Policy and regulation: opportunities in energy policy, system planning and regulation where technical insight is required to support the design of low-carbon energy systems.

Why study at Eindhoven University of Technology

Eindhoven University of Technology offers a technically rigorous master’s environment with strong emphasis on applied research and close collaboration with industry. The university is located in a high-tech regional ecosystem that provides access to industrial partners, start-ups and research institutes, enabling real-world project opportunities and internships.

• Research-led teaching: courses are taught by active researchers and offer access to modern laboratories and pilot facilities for energy conversion, storage and power electronics.
• Industry connections: project work and thesis placements often involve partnerships with companies and utilities, giving students exposure to practical challenges and implementation pathways.
• Multidisciplinary approach: the programme encourages integration of electrical, mechanical, chemical and systems engineering perspectives to develop holistic solutions for sustainable energy systems.
• International and entrepreneurial environment: students join a diverse cohort and benefit from a campus culture that supports innovation, collaboration and career development in the energy sector.