Quantum Engineering - Study line
Quantum Engineering
The study line in quantum engineering focuses on the understanding, control and design of complex quantum systems for applications in emerging quantum technologies such as extremely sensitive sensors, quantum communication systems and quantum computers. The methods involved range from quantum mechanical calculations and simulations to the theoretical and experimental development and investigations of optical systems, solid-state systems, and electronic systems designed to harness the fundamental properties of quantum mechanics – such as quantum superposition and entanglement.
Polytechnic foundation courses (10 ECTS)
As described in the curriculum for the main program.
Program Specific Courses
A. Innovation competences
As described in the curriculum for the main program.
Programme specific core courses
B. Experimental competences
5 ECTS points among the following courses must be chosen (surplus points count as other programme specific courses or as elective courses):
10386 | Experimental Techniques in Quantum Technology | 5 | point | June |
10855 | Advanced fabrication of micro- and nanostructures | 10 | point | Autumn E2 (Mon 13-17, Thurs 8-12) and Autumn E5 (Wed 8-17) |
Programme specific core courses
C. Numerical competences
5 ECTS points among the following courses must be chosen (surplus points count as other programme specific courses or as elective courses):
10316 | Materials design with machine learning and artificial intelligence | 5 | point | January |
10325 | Quantum mechanical modelling of nanoelectronics | 5 | point | January |
Programme specific core courses
D. Theoretical competences
5 ECTS points among the following courses must be chosen (surplus points count as other programme specific courses or as elective courses):
10112 | Advanced Quantum Mechanics | 10 | point | Autumn E2 (Mon 13-17, Thurs 8-12) |
10380 | Quantum Optics | 10 | point | Spring F4 (Tues 13-17, Fri 8-12) |
Other programme specific courses
Must add up to at least 45 ECTS together with the programme specific core courses
10122 | Statistical Physics | 5 | point | Autumn E3A (Tues 8-12) |
10318 | Many body methods in condensed matter physics | 5 | point | Autumn E2B (Thurs 8-12) |
10384 | Quantum information | 5 | point | Autumn E4B (Fri 8-12) |
10385 | Quantum Information Technology | 5 | point | Spring F3A (Tues 8-12) |
10521 | Physics and technology of two-dimensional materials | 10 | point | Spring F2A (Mon 13-17) and Spring F2B (Thurs 8-12) |
10850 | Advanced micro- and nanofabrication technology | 5 | point | Spring F3B (Fri 13-17) |
34032 | Optical properties of solids | 5 | point | Autumn E1B (Thurs 13-17) |
34042 | Quantum photonic communication | 5 | point | Autumn E5A (Wed 8-12) |
34051 | Nanophotonics | 10 | point | Spring F1 (Mon 8-12, Thurs 13-17) |
34153 | Physical concepts in optical communication | 5 | point | Spring F3A (Tues 8-12) |
Recommended study plans with a minimum of programme specific courses
Start in September
1. Semester
2. Semester
3. Semester
4. Semester
30-35 ECTS MSc. thesis
Topic must be relevant for study line
Start in February
1. Semester
2. Semester
Materials design with machine learning... Materials design with machine learning and artificial intelligence
3. Semester
4. Semester
30-35 ECTS MSc. thesis
Topic must be relevant for study line