Cavity Quantum Optomechanics: Principles and Applications

This module provides an introduction to optomechanics, covering motivation, qualitative basics, optical forces, and optomechanical forces in circuits. It lays the foundation for understanding the interaction between light and mechanical systems.

This module focuses on the classical description of resonators, basics of elasticity, mechanical dissipation, and stochastic processes including Brownian motion. It provides the essential background for understanding the behavior of optical and mechanical systems.

This module covers optomechanical coupling and equations of motion, dynamical backaction, nonlinear dynamics, and the quantization of harmonic oscillators. It bridges the gap between classical and quantum descriptions of optomechanical systems.

This module delves into the quantum optics of a cavity, quantum equations of motion, quantum theory of optomechanical cooling, the strong coupling regime, and optomechanically induced transparency. It provides a comprehensive introduction to quantum optomechanics.

This module explores homodyne detection, displacement sensing and the standard quantum limit, squeezed light and its applications in gravitational wave detection, optomechanical squeezing, and entanglement in cavity optomechanical systems. It covers advanced topics in quantum optomechanics.

This final module focuses on experimental platforms, photonic crystals, fabrication methods, and finite element simulations. It provides practical knowledge for designing and implementing optomechanical experiments.