Nonlinear Optics: Optical Kerr Effect and Phase Conjugation

Related lectures (32)

Page 3 of 4

Explores autocorrelators in laser systems, covering basic operation, noise characteristics, ultrafast lasers, and frequency conversion.

Explores the nonlinear Schrodinger Equation, dispersion effects, and Gaussian pulse evolution.

Explores pulse propagation in nonlinear and dispersive media, optical wave breaking, and soliton Gaussian equilibrium.

Covers the basics of laser technology, different laser systems, and advanced laser applications.

Covers the principles and applications of autocorrelators in laser technology.

Explores femtosecond laser pulse generation, nonlinear optics, pulse compression, and laser systems for ultrafast pulses.

Explores laser amplification through stimulated emission and the generation of short pulses using mode-locking techniques.

Covers laser systems, atomic transitions, and light attenuation in lasers, focusing on the electron oscillator model and absorption coefficient.

Introduces fiber nonlinearities, discussing their impact and effects on light interaction in optical fibers.

Explores the impact of higher order dispersion, Gaussian pulse evolution, pure nonlinear propagation, Kerr effect, and pulse propagation lengths.