One option for specialisation within the master's course of study Physics is the field of quantum technologies. Find out more about the master's track quantum technologies and the recommended modules here.
Quantum mechanics, one of physics' most successful theories, describes individual quantum objects like atoms and electrons and their interactions. In Leipzig they are studied under a wide range of conditions, ranging from single atoms at ultracold temperatures to solid-state systems at room temperature. The results of our research open the ways to new applications, such as single-molecule NMR for complex molecule analysis, powerful quantum computers, quantum communication, sensitive magnetometers, and self-calibrating current sources. They promise to revolutionise everyday life aspects, such as medical diagnostics through novel sensors. At Leipzig University, several research groups are actively exploring these fields, ranging from fundamental research to commercialisation.
Structure of the Course of Study
The master's course of study Physics is divided into two one-year phases: the expansion and advanced phase and the research phase.
| Modules | ||||
|---|---|---|---|---|
| 1st Sem. | Elective Area 1: 12-PHY-MWPE1 Advanced Solid State Physics (10 CP) | Elective Area 2: 12-PHY-MWPT1 Advanced Quantum Mechanics (10 CP) | Elective Area 3: 12-PHY-MWPSKM Specialised Topics of Solid State Physics (5 CP) | Elective Area 4: Physics-Related Electives (35 CP) |
| 2nd Sem. | ||||
| 3rd Sem. | 12-PHY-MFS1 Research Project 1 (15 CP) | 12-PHY-MFS2 Research Project 2 (15 CP) | ||
| 4th Sem. | Master’s Thesis (30 CP) | |||
For the elective area 4 (physics-related electives), you choose modules with a total of 35 CP from the following elective modules for the master's course of study.
In this master's course of study you can also take the bachelor's modules mentioned below if the knowledge imparted there is necessary for taking the master's modules.
Master Modules
| Sem. | Module No. | Module Title | CP |
|---|---|---|---|
| 2 | 12-PHY-MWPQT2 | Quantum Technology 2 | 5 |
| 1 | 12-PHY-MWPQT3 | Quantum Technology 3 | 5 |
| 1 | 12-PHY-MWPKP1 | Nuclear Physics | 5 |
Bachelor Modules
| Sem. | Module No. | Module Title | CP |
|---|---|---|---|
| 1 | 12-PHY-BMWQT1 | Quantum Technology 1 | 5 |
| 2 | 12-PHY-BMWQTPR | Quantum Technology – Lab Course | 5 |
| 1 | 12-PHY-BMWQMAT | Quantum Matter | 5 |
| 1 | 12-PHY-BW3MQ1 | Fundamentals of Quantum Spin Resonance Technology | 5 |
| 2 | 12-PHY-BW3MO1 | Introduction to Photonics I | 5 |
| 1/2 | 12-PHY-BMWQS1 | Quantum Sensing | 5 |
| 1/2 | 12-PHY-BMWQC1 | Quantum Communication | 5 |
| 2 | 12-PHY-BW3SU1 | Superconductivity I | 5 |
Working Groups
The following working goups at our faculty are working in the area of quantum technologies:
- Applied Quantum Systems
Prof. Dr. Jan Meijer - Semiconductor Physics
Prof. Dr. Marius Grundmann - Quantum Information
Prof. Dr. Nabeel Aslam - Quantum Optics
Prof. Dr. Johannes Deiglmayr - Applied Magnetic Resonance
Prof. Dr. Rustem Valiullin
Prof. Dr. Nikolaus Weiskopf
