About this programme
The MSc programme in Quantum Engineering is a two-year programme with the first year focused on lectures, seminars and lab courses in order to deepen and broaden the knowledge of students beyond the experiences from BSc-level studies. In the second year, students work on a topical project in quantum technology integrated in a faculty research team under the supervision of a professor or senior scientist, leading to a Master's thesis. Our faculty consists of 15 chairs, which cover a broad range of topics within condensed matter physics, particle and astrophysics, energy research, quantum optics, optoelectronics and imaging technologies, combining experimental, theoretical and applied approaches. We collaborate with leading groups of the top universities and research institutes worldwide, such as at Cambridge, Harvard, Princeton, Stanford, Riken and the Max Planck Society. One major focus is on research in topological and correlated solid state physics, which receives annual multimillion federal funding through individual grants and awards and a collaborative research centre. Our expertise in material synthesis, characterisation and spectroscopy as well as in theoretical prediction and modelling and in the exploration of applications allows us a cradle-to-paper approach, all within our faculty. Materials synthesised by our molecular beam epitaxy and pulsed laser deposition groups undergo structural, optical, magnetic and quantum transport measurements and are shared with groups performing a number of spectroscopy techniques. These include angle-resolved photoemission spectroscopy, spin-polarised scanning tunnelling spectroscopy, electron and nuclear spin resonance, spectroscopy and resonant X-ray spectroscopy as well as electron microscopy. Research in theoretical physics develops and employs ab-initio, field-theoretical, many-body theory, Monte-Carlo and holographic methods. Our research also covers theoretical and experimental particle physics, theoretical and observational astrophysics and astronomy as well as quantum field theory and string theory. An important focus is on the development of technologies for renewable energy harvesting, nano- and biophotonics, molecular electronics, quantum communication, spintronics and imaging techniques covering the spectroscopic range from radio waves (NMR) to X-rays. A wide range of epitaxial growth equipment for inorganic and organic semiconductor heterostructures, clean room facilities, spectroscopy labs and lithography are routinely used by our researchers and students. The study programme Quantum Engineering is a combination of two major topics: A) Advanced Experimental and Theoretical Physics and B) Quantum Engineering Research with strong emphasis on scientific research during a one year Master's Project. During the first year of the programme, the students enrol in the Advanced Laboratory Courses and the Advanced Seminar Quantum Engineering as well as at least three to four elective courses of advanced research in Quantum Engineering theory and experiment. All modules except for the laboratory courses are accompanied by a graded examination. In semesters three and four, further specialised research training is provided in a selected field of interest. These two Master's project modules lead to the Master's thesis itself. The students are actively involved in ongoing research projects. They learn to plan and perform independent theoretical and experimental work. They also learn to summarise and discuss the results obtained in the Master's thesis. The thesis has to be presented and discussed within the working group seminar. Further modules (up to five ECTS) are selected within the "Non-Technical Minor" sub-area to cover special aspects of interest. These modules will not be graded (pass/fail only). PDF Download
Course details verified 09 Sep 2026 — intakes, entry requirements and course facts · official source