Lectures related to Quantum Optics I: Wigner Function

Explores the Jarzynski equation and the quantization of electrical circuits in quantum harmonic oscillators.

Covers the quantization of the harmonic oscillator and its implications on the electromagnetic field, including vacuum energy effects.

Covers state reconstruction in quantum optics, focusing on the Wigner function and experimental measurements.

Explores squeezed states, quadrature representation, P-function, and Wigner function in quantum optics.

Covers the damped harmonic oscillator in quantum optics, discussing alternative descriptions and extensions like finite temperature.

Explores energy storage in coils, magnetic fields, and capacitors, emphasizing the oscillation and decay of energy in circuits.

Explores superconductors, Cooper pairs, quantum mechanics, Lagrangian formalism, and the AC Josephson effect.

Covers Josephson inductance, Cooper pair box, Transmon qubits, and their practical applications.

Explores the generation and properties of squeezed light, improving signal-to-noise ratio for measurements.

Explores inductors' applications, LC circuit operation in radio clocks, energy oscillations, and harmonic oscillators.

Covers the analysis of AC circuits, focusing on complex impedance and phase differences between current and voltage.

Covers the fundamentals of superconducting circuits and their applications in quantum optics, including Josephson junctions and Cooper pair boxes.

Explores the evolution of the distribution function describing particles in phase space.

Explores the Stern-Gerlach experiment, strong measurements, cavity quantum electrodynamics, and quantum optomechanics.

Explores the classical dynamics and quantization of a harmonic LC oscillator.

Covers the damped harmonic oscillator in quantum optics, including field amplitude, coherent states, photon numbers, and phase space.

Covers photon antibunching in resonance fluorescence and the properties of the P-function.

Covers the magnetic thickness, short and long junctions, and critical current.

Covers the enhanced sensitivity of the LIGO gravitational wave detector using squeezed states of light.

Explores LC oscillators, filters, resonance, and energy losses in circuits with inductors and capacitors.