Az itt felsorolt kurzusok és szemináriumok általában minden évben meghirdetésre kerülnek, azonban az aktuális év tanmenetéről érdemes mindig az adott egyetemtől érdeklődni!
Graduális és posztgraduális kurzusok
Eötvös Loránd Tudományegyetem (ELTE)
- Algebraic Bethe Ansatz and its applications (F. Woynarovich)
- Cavity Quantum Electrodynamics (P. Domokos, J. Asbóth)
- Cognitive Neuroscience (L. Négyessy)
- Completely integrable many body systems (F. Woynarovich)
- Computational Neuroscience (Z. Somogyvári)
- Electrodeposition of metals (L. Péter)
- Electrons in solids (I. Tüttő)
- Electrons in solids (J. Sólyom)
- Inner structure of compact stars (G.G. Barnaföldi and M. Vasúth)
- Introduction to general relativity, (I. Rácz)
- Introduction to general relativity, (M. Vasúth)
- Introduction to gravitational theory and high energy physics (G.G. Barnaföldi and M. Vasúth)
- Jet physics (P. Lévai)
- Liquid crystals, their chemistry and chemical physics (K. Fodor-Csorba)
- Macromolecules I. (S. Pekker)
- Many-body physics I. (G. Szirmai)
- Many-body physics II. (G. Szirmai)
- Nanomagnetism (J. Balogh)
- Neural Modelling (Z. Somogyvári, M. Bányai, D. Cserpán)
- Nuclear Solid State Physics I (D.L. Nagy)
- Nuclear Solid State Physics II (D.L. Nagy)
- Open Quantum System Theory (L. Diósi)
- Pattern formation in complex systems (Á. Buka and T. Börzsönyi)
- Phase structure of strongly interacting matters (P. Lévai)
- Physics of liquid crystals and polymers (Á. Buka and N. Éber)
- Physics of low temperature plasmas (Z. Donkó)
- Physics of the heliosphere (G. Erdős)
- Plasma physics of the Solar System (K. Szegő)
- Relativistic heavy ion collisions (P. Lévai)
- Renormalization methods for strongly correlated systems (Ö. Legeza)
- Superconductivity (I. Tüttő)
- Topological insulators (J. Asbóth)
Budapesti Műszaki és Gazdaságtudományi Egyetem (BME)
- Advanced thermodynamics (P. Ván)
- Coherent control of quantum systems (Z. Kis)
- Group theory in solid state research (G. Kriza)
- Infrared and Raman spectroscopy (K. Kamarás)
- Infrared vibrational spectroscopy, part of the course Experimental methods in materials science (L. Kovács)
- Interacting spin systems (K. Penc)
- Introduction to theoretical plasma physics (A. Bencze)
- Investigation methods in materials science (M. Bokor and K. Tompa)
- Ion beam analysis, part of the course Experimental methods in materials science (E. Szilágyi)
- MHD in low-dimensional systems (A. Bencze)
- Neutron scattering I, part of the course Experimental methods in material science (B. Nagy, L. Bottyán)
- Nuclear Solid State Physics I (D.L. Nagy)
- Nuclear Solid State Physics II (D.L. Nagy)
- Physics of low temperature plasmas (Z. Donkó)
- Raman spectroscopy, part of the course Experimental methods in materials science (M. Veres)
- Spectroscopy and structure of matter (K. Kamarás)
- Superconductivity (G. Kriza)
- Neuroinformatics (L. Négyessy, F. Bazsó, Z. Somogyvári, L. Zalányi, M. Bányai)
- Chemistry and Physics of Polymers (S. Pekker)
- Biophyics (Z. Szőkefalvi-Nagy, SZIE AOTK)
- Computer Aided Engineering (L. Zoltan)
- Machine elements I. (L. Zoltan)
- Machine elements II. (L. Zoltan)
- Analytical mechanics (L. Fehér)
- Application of statistical physics (F. Iglói)
- Experimental methods of nuclear physics (T. Csörgő)
- Fundamental processes in nonlinear laser-matter interactions (S. Varró)
- Introduction to theoretical physics I. (L. Fehér)
- Nuclear and Particle Physics I (T. Csörgő)
- Physics of amorphous matter I-II (M. Koós)
- Quantum field theory (L. Fehér)
- Selected topics in mathematical physics (L. Fehér)
- Statistical physics (F. Iglói)
- Calculus I. (K. Szlachányi)
- Calculus II. (K. Szlachányi)
- Control theory (J. Füzi)
- Digital Control (J. Füzi)
- Electronics (J. Füzi)
- Mathematical methods in physics IV. (P. Ádám)
- Numerical methods (P. Ádám)
- Operating systems (B. Kollár)
- Physics of gas discharges (Z. Donkó)
- Probability theory (P. Ádám)
- Quantum mechanics I. (J. Janszky)
- Quantum mechanics II. (J. Janszky)
- Quantum mechanics II. (P. Ádám)
- Statistical physics (K. Szlachányi)
- Theoretical physics III. (P. Ádám)
- Particle Physics, MSc Course (D. Horváth)
- Quantum Field Theory (T.S. Biró)
- Structure and Experimental Test of the Standard Model, PhD Course (D. Horváth)
Rolls-Royce University Technology Centre, Cambridge University, UK
- Phase field modelling and solidification (L. Gránásy, T. Pusztai, G. I. Tóth, G. Tegze)
Gyakrolatok és szemináriumok
Eötvös Loránd Egyetem, Budapest
- Experiments on liquid crystals (Á. Buka, N. Éber, T. Tóth-Katona)
- Laboratory for solid state physics, Preparation and crystallization of metallic glasses (I. Vincze)
- Laboratory practice (T. Pusztai)
- Laboratory practice in solid state physics and materials science (K. Tompa and M. Bokor)
- Physical chemistry laboratory practice (L. Péter, B. Tóth)
- RBS and ERDA analysis, extended practice for physics student (E. Kótai).
- Solar-terrestrial relation for astrophysics students (M. Tátrallyay)
- Solid-state physics seminar (I. Tüttő)
- Solid-state physics seminar (J. Sólyom)
Budapesti Műszaki és Gazdasági Egyetem
- Infrared and Raman spectroscopy (K. Kamarás)
- Infrared vibrational spectroscopy, part of the course Experimental methods in materials science (K. Lengyel)
- Laboratory practice on investigation methods in materials science (M. Bokor and K. Tompa)
- Practice course in experimental physics for engineer-physicists (A. Szakál)
- Practice course in electrodynamics for energy-engineers (A. Szakál)
- Problem solving courses in thermodynamics (T. Fülöp)
- Problem solving course in heat exchange (P. Ván)
- Raman spectroscopy, part of the course Experimental methods in materials science (M. Veres)
- Seminar to the Physics 2 course for bachelor students in electrical and software engineering (B. Nagy)
- Control theory seminar (J. Füzi)
- Electronics laboratory practice (J. Füzi)
- Operating systems (B. Kollár)
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