Cluster-relevant lectures
Here we enlist cluster-relevant lectures to give an overview on lectures given by pricipal investigators and associated members from TU Dresden and JMU Würzburg. More information and registration details can be found at the respective lecture.
Winter Term 2022/23
| Instructor | Course | Registration | |
| Budich | Analytical Tools for Quantum Many-Body Physics | OPAL | |
| Reichlova | Magnetism I | OPAL | |
| Geck, Inosov | Solid State Spectroscopy | OPAL | |
| Büchner, Wurmehl | Magnetism on the nanoscale | ||
| Eng | Nanooptics - MC Nanobiophysics | OPAL | |
| Sarkar | NMR on condensed matter | ||
| Nogueira, Shyta, van den Brink | Path integrals in condensed matter physics: From Hubbard to SYK | ||
| Dörr, Wirth | Physics on extreme conditions | OPAL | |
| Bukov, Claeys, Moessner | Many-Body Quantum Dynamics | ||
| Büchner, Grafe | Superconductivity II | ||
| Kaiser | Ultrafast methods of solid state physics | OPAL | |
| Ruck | Crystal Structure Determination | OPAL | |
| Doert | Fundamentals of Crystallography | OPAL |
Summer Term 2022
| Instructor | Course | Registration |
| Inosov | Statistical Evidence in Experimental Science | OPAL |
| Felser, Shekhar | Comprehensive Course on Topology and Materials | |
| Inosov, Geck | Condensed Matter Research with X-rays and Neutrons | OPAL |
| Faßbender, Schultheiß | Magnetims II | OPAL |
| Büchner | Molecular Nanostructures | |
| Eng | Nanotechnology | OPAL |
| Eng | Scanning probe microscopy | OPAL |
| Wosnitza | Superconductivity | |
| Sarkar | Symmetry breaking in condensed matter physics: An experimental approach | |
| Peets | Synthesis and physical properties of quantum materials | OPAL |
| Reichlova | Transport properties of emerging materials in solid state physics | OPAL |
| Kaiser | Ultraschnelle Nichtgleichgewichtsdynamik | OPAL |
| Tu | Many-Body Theory in Condensed Matter | |
| Peets | Synthesis and physical properties of quantum materials | OPAL |
Winter Term 2021/22
| Instructor | Course | Registration |
| Geck, Inosov | Solid State Spectroscopy | OPAL |
| Thomas | Solid State Magnetism | OPAL |
| Budich | Computational Tools for Quantum Many-Body Physics | OPAL |
| Büchner | Magnetism on the nanoscale | |
| Eng, Kehr | Nanooptics | OPAL |
| Sarkar | NMR on condensed matter | |
| Dörr | Physics at extreme conditions | OPAL |
| Charnukha | Optical Spectroscopy of Quantum Matter | |
| Büchner | Superconductivity II | OPAL |
| Kaiser | Ultrafast methods of solid state physics |
Summer Term 2021
| Instructor | Course | Registration | |
| Buhmann | Quantum Transport | ||
|
Trauzettel |
Bosonization and Interactions in 1D | ||
| Assaad | Field Theory in the Solid State | ||
| Greiter | Conformal Field Theory II | ||
| Inosov | Statistical Evidence in Experimental Science | OPAL | |
| Tjeng | Practical Quantum Mechanics for Experimental Solid State Physicists | ||
| Tjeng, Keimer (MPI-FKF Stuttgart) | Introduction to Spectroscopic Methods for Strongly Correlated Quantum Materials | ||
| Peets | Synthesis and Physical Properties of Quantum Materials | OPAL, Mail | |
| Felser | Instructor Course Starting Date Registration |
Winter Term 2020/21
| Instructor | Course | Registration |
| Timm | Many-particle theory | OPAL |
| Geck, Inosov | Solid State Spectroscopy | OPAL |
| Budich | Geometry and Topology in Quantum Physics | OPAL |
| Trauzettel | Introduction to Quantum Computer an Quantum Information | |
| Kleinlein | Spintronics | |
| Greitner, Thomale | Conformal Field Theory | |
| Assaad | Theory of the solid state I |