Covers quantum eigenfunctions and the importance of A and B commuting for the same set of eigenfunctions.
Explores the Eigenstate Thermalization Hypothesis in quantum systems, emphasizing the random matrix theory and the behavior of observables in thermal equilibrium.
Covers the basics of quantum mechanics, focusing on Hamiltonian operator and Schrödinger equations.
Explores symmetry, Noether's theorem, and conservation laws in physics, emphasizing the role of time and the Hamiltonian.
Covers sideband cooling in quantum optics, focusing on motional sidebands, Lamb-Dicke parameter, and cooling cycle.
Covers the calculation of eigenvalues and eigenvectors, emphasizing their significance and applications.
Explores computational methods in quantum physics, emphasizing exact diagonalization and space discretization techniques.
Covers topics related to quantum chemistry, including observable operators and eigenvalues.
