One option for specialisation within the master's course of study Physics is the field of theoretical condensed matter. Find out more about the master's track theoretical condensed matter and the recommended modules here.

enlarge the image: Arrangement of many small arrows of different colours
Non-hermitian classical and quantum-mechanical systems exhibit exceptional critical points and new dynamical phases. Photo: Thomas Ullmann

We predominantly investigate the emergent collective behaviour of large aggregates of particles (or more complex “agents”) by trying to explain how their macroscopic properties arise from the micro-scale physics. The lectures and our ongoing research activities cover a diverse set of physical problems both in quantum and classical regimes, ranging from the understanding of how electrons superconduct electricity or how quantum spin liquids emerge in magnetic materials to how neurons form brains or how micro-swimmers flock. In other words, Theoretical Condensed Matter Physics is the study of why “more is different”, as illustrated, for example by the emergent particle-like excitations with fractional statistics in quantum Hall fluids or the entropy producing motile defects in non-reciprocal active matter systems. To tackle these problems, we employ a variety of mathematical and field theoretic techniques as well as advanced computational tools, and investigate a manifold of “hard” and “soft” many-body systems covering various length and time scales and conditions near and far from equilibrium.

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:
Experimental Physics
(10 CP)
Elective Area 2:
Theoretical Physics
(10 CP)
Elective Area 3:
12-PHY-MWPSWM
Specialised Topics of Theoretical 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 1 (15 CP)
4th Sem.Master's Thesis
(30 CP)


For the elective area 1 (experimental physics), you choose a module from the following compulsory elective modules:

Sem.Module No.Module TitleCP
1/212-PHY-MWPE1Advanced Solid State Physics10
1/212-PHY-MWPE2Soft Matter Physics10
212-PHY-MWPASMSoft Matter and Biological Physics10

 

For the elective area 2 (theoretical physics), you choose a module from the following compulsory elective modules:

Sem.Module No.Module TitleCP
112-PHY-MWPT1Advanced Quantum Mechanics10
212-PHY-MWPT2Advanced Statistical Physics10

 

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. You can also choose modules from elective areas 1 and 2 that you have not yet taken.

Master Modules

Sem.Module No.Module TitleCP
1/212-PHY-MWPTKS1Stochastic Processes in Physics, Biology and Earth Sciences10
1/212-PHY-MWPTKS2Non-linear Dynamics and Pattern Formation10
1/212-PHY-MWPTKS3Practical Course: Complex Systems5
1/212-PHY-MWPTKM3Theory of Soft and Bio Matter10
1/212-PHY-MWPTKM4Practical Course: Condensed Matter Theory5
1/212-PHY-MWPCQM1Practical Course: Quantum Theory of Condensed Matter5
1/212-PHY-MWPSTP1Quantum Field Theory of Many-Particle Systems10
1/212-PHY-MWPSTP2Statistical Mechanics of Deep Learning10
1/212-PHY-MWPTKM5Practical Course: Quantum Statistical Physics5
1/212-PHY-MWPXT1Group Theory and Its Applications in Physics10

Working Groups

The following working goups at our faculty are working in the area of theoretical condensed matter:

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Numerical observation of the Berezinskii–Kosterlitz–Thouless renormalisation group flow at a quantum phase transition of the one-dimensional Bose–Hubbard model, Photo: Matthias Thamm, Bernd Rosenow

Other Master's Tracks

Soft and active matter

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Biophysics

Read more

Materials

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