Solar Energy

Solar Energy

In the study line Solar Energy, the students will gain a solid understanding of photovoltaic systems and solar heating systems, including a detailed understanding of the individual components needed in a solar system. The students will learn to model and dimension systems, and to understand how solar energy is interfacing to the energy system and the surrounding environment.

The graduates will be able to analyse and develop solar energy systems using advanced modelling and experimental approaches. They will understand the physics and will be able to model photovoltaic- and solar heating systems and evaluate the components. The graduates will further understand the operating and lifetime expectations of the components and systems, and will be able to accommodate and test these expectations in the development process.

The programme can be customized into different sub-fields of the photovoltaic technology, such as solar cell development, photovoltaic systems, building integrated photovoltaics, and solar thermal systems.

Graduates with a degree from the Solar Energy study line are highly qualified candidates for jobs in the energy sector and in companies that develop and manufacture components and systems within solar energy. Solar energy is becoming an increasingly important player within sustainable energy and it is expected to contribute significantly to the energy supply both nationally and worldwide.

Polytechnic foundation courses (5 ECTS)

The following course is mandatory

42500 Innovation in Engineering (Polytechnical Foundation) 5 point January
or
42504 Innovation in Engineering (Polytechnical Foundation) 5 point August
or
42501 Innovation in Engineering (Polytechnical Foundation) 5 point June

Students with advanced innovation competences may take one of the following courses as an alternative to 42500/42501/42504:

42502 Facilitating Innovation in Multidisciplinary Teams 5 point January
or
42505 Facilitating Innovation in Multidisciplinary Teams 5 point August
or
42503 Facilitating Innovation in Multidisciplinary Teams 5 point June

Programme specific courses (55 ECTS)

Innovation course II - mandatory (5 ECTS)

34541 Entrepreneurship in photonics and communications 5 point Autumn E1B (Thurs 13-17)

Core competence courses - mandatory (30 ECTS)

28870 Energy and Sustainability 5 point E7 (Tues 18-22)
34552 Photovoltaic systems 5 point Spring F2B (Thurs 8-12)
41464 Solar Heating Systems 10 point Spring F3 (Tues 8-12, Fri 13-17)
42015 Energy Economics 5 point Autumn E3B (Fri 13-17)
46205 Feasibility studies of energy projects 5 point Autumn E3A (Tues 8-12)

Choose 20 ECTS among the rest of the programme specific courses: 

10850 Advanced micro- and nanofabrication technology 5 point Spring F3B (Fri 13-17)
34540 Light emitting diodes and photovoltaics for energy applications 5 point Autumn E2A (Mon 13-17)
34551 Thin film photovoltaics 5 point January
34553 Applied photovoltaics 5 point June
34620 Basic power electronics in energy systems 5 point Spring F1B (Thurs 13-17)
41461 Building Integrated Photovoltaics 5 point Autumn E2B (Thurs 8-12)
41467 Development of solar energy systems 5 point Autumn E4A (Tues 13-17)
46700 Introduction to Electric Power Systems 10 point Autumn E4 (Tues 13-17, Fri 8-12)
46740 Distributed energy technologies, modelling and control 5 point Spring F1B (Thurs 13-17)
46755 Renewables in electricity markets 5 point Spring F2A (Mon 13-17)
47330 Energy storage and conversion 5 point Autumn E1A (Mon 8-12)

Elective courses (30 ECTS):

May be taken among all of DTU's MSc courses, including surplus programme specific courses.

Master's thesis (30 ECTS):

MSc thesis within the area of the specialization shall be conducted. The project can be completed in collaboration with a relevant company.

Study track responsible