Specialisations
Two majors with a different focus are offered in the Master's Programme in Engineering Physics. Students should choose their major at the beginning of the programme. Personal academic advisors and the Learning Services are available for advice and guidance on study-related questions. The majors are as follows:
Materials Physics and Quantum Technology
Students can focus on either experimental physics or theoretical physics and modeling with emphasis on technology applications or basic research. Students can further specialise in nanomaterials, solid-state applications of quantum technology, or purely theoretical physics related to the most pressing questions in modern solid-state physics and quantum technology. The unique AaltoQ20 quantum computer is also used in teaching to educate future experts.
Advanced Energy Technologies
This major addresses the most pressing questions faced by society in the near future: how to combat climate change and pollution by finding alternative energy sources. These include e.g. nuclear fission and fusion, solar energy, and fuel cells.
In addition to learning advanced physics and mathematics, the courses are carefully planned to enable students to think outside the traditional boundaries of different disciplines of physics and therefore inspire innovative thinking. This is what the Master's Programme in Engineering Physics is famous for – and engineers and scientists who are able to see the big picture are becoming increasingly sought after in the job market, too.
As research is deeply integrated into the curriculum, the topics in this arena include experimental and computational materials physics, nanophysics and nanoscience, quantum technology, and advanced energy technologies.
To give concrete examples of the topics covered in the programme, here are some courses picked from the extensive curriculum:
- Quantum Many-Body Physics I-II (7/8 ECTS)
- Magnetism and Spintronics (5 ECTS)
- Fusion Energy Technology (5 ECTS)
- Nuclear Engineering, advanced course (5 ECTS)
- Advanced Quantum Materials (5 ECTS)
- Advanced Computational Methods in Physics (5 ECTS)
The study programme differs from more classical university physics in its proximity to concrete, practical questions in engineering or research. Learning takes many forms – from theory-driven and science-based research to company excursions. A concrete example of the programme’s emphasis on real-life problems and connection to the practical world is the Company Internship course (10 ECTS), where students gain valuable work experience and create connections to industry.
More information on the programme content and curriculum can be found in the Student guide.