Lectures related to Quantum Transport: Scattering Matrix Approach

Covers the concept of quantum dots, their similarities to atoms, and potential applications in quantum computation.

Introduces the basics of plasma physics, covering collective behavior, Debye length, and plasma conditions.

Explores quantum optics of resonators, covering cavity Hamiltonian, quantum Langevin equations, Purcell effect, and cavity QED.

Covers the interpretation of the Lindblad equation and its unitary part in quantum gases.

Explores conservative forces, work, and potential energy calculations.

Covers momentum, energy, and angular momentum in various scenarios.

Explores optical spectroscopy, emphasizing photodetectors' efficiency and performance metrics.

Covers the Noether currents, Lorentz symmetry, and field quantization in quantum field theory.