The Master's degree program gives an insight into current research trends in modern applied physics. Possible areas for specialization within the Master's program are:
- Appliedsolidstatephysics - including topics such as magnetism, semiconductor physics,applied superconductivity, spin electronics
- Energy sciences - including topics such as fuel cells, energy conversion, reactor physics and nuclear technology, nonlinear dynamics and complex systems, renewable energy.
- Experimentaltechniquesandnumericalmethods - including topics such as physics with neutrons, modern x-ray physics, advanced materials analysis with synchroton radiation, magnetic measurement methods.
- High energy physics - including topics such as particle detectors, particle physics with highest energy particle colliders, computational physics, data analysis and Monte Carlo methods.
- Medicalengineering - including topics such as image processing in physics, biomedical physics.
- Nanosciences - including topics such as nanosystems, nanomaterials, nanostructured soft materials, surface and nanoscale science.
- Plasma physics - including topics such as plasma physics, fusion research, kinetic plasma physics, magneto hydrodynamics, turbulence in neutral fluids and plasmas.
- Soft matter science - including topics such as polymer physics, nanostructured soft materials.
- Science of light - including topics such as quantum optics, ultrafast physics and attosecond science, various light sources from infrared to X-rays, optoelectronics, ultra cold quantum gases.
For a comprehensive description of the program, please refer to the degree program documentation:
- Degree program documentation for the master's program in Physics (Applied and Engineering Physics) (PDF, German)
