
This is an introductory course in classical and quantum statistical mechanics which deals with the principle of ensembles, Classical, Fermi and Bose ideal gases, Pauli paramagnestim, Debye and Einstein’s theory of specific heat and the 1D Ising model.

Explore Bose-Einstein condensates and their role in advancing new technologies through an in-depth lecture by Emanuel Henn from USP, Brazil.

Explore quantum gases' ground state, thermodynamic limits, and Bogolubov approximation in this mathematical physics lecture, bridging theory and experimental verification.

Explore topological matter in quantum gases, examining prospects and challenges with expert Sylvain Nascimbène from Collège de France, Paris.

Explore optical lattices in cold atom physics, focusing on advanced concepts and experimental techniques in this comprehensive lecture series.

Explore open systems and supersolids in quantum gases, covering compressibility, non-equilibrium phenomena, and exotic many-body states in dipolar quantum Bose gases.

Explore superfluid vortex dynamics, spin-charge separation, and ionic polarons in degenerate Fermi gases through expert lectures on low-dimensional quantum systems.

Explore ultracold bubbles in microgravity and Bose-Einstein condensates in anisotropic bubble traps. Gain insights into low-dimensional quantum gases research.

Explore ultracold gases and molecules, their interactions, and applications in quantum physics. Learn about cooling techniques and recent advancements in creating ultracold polar molecules.

Explore cutting-edge quantum gas research and potential future developments with Nobel laureate Wolfgang Ketterle from MIT.