Laser Architecture: Quantum Dynamics and Stabilization

Related lectures (31)

Page 3 of 4

Explores the failure of classical theory in describing thermal radiation, Planck's radiation law, and Einstein's quantum model.

Explores rate equations, gain saturation, and various laser types and applications.

Covers laser mediums and resonators, providing feedback for stimulated emission.

Explores laser fundamentals, historical development, and attenuation mechanisms.

Explores laser operation modules, including light-atom interaction, resonators, noise characteristics, and ultrafast lasers.

Discusses damping in oscillator models, stimulated emission, and absorption cross section.

Provides an overview of laser fundamentals, applications, and technologies relevant to engineering and manufacturing processes.

Covers the concept of gain saturation in lasers and its impact on the laser output.

Explores electrical injection in semiconductors, transparency, laser oscillations, and edge-emitting laser diode design.

Explores the physics of photonic semiconductor devices, including laser diodes, VCSELs, high-beta nanolasers, and quantum cascade lasers.