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Lecture
Autocorrelators: techniques and applications
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Related lectures (32)
Autocorrelators
Covers the principles and applications of autocorrelators in laser technology.
Untitled
Autocorrelators: pulse measurement methods
Explores the principles and applications of autocorrelators in measuring laser pulse profiles.
Ultra-short Pulses & Mode-locking
Explores pulsed laser sources, mode-locking, and frequency metrology, emphasizing ultra-fast pulses and optical atomic clocks.
Untitled
Ultrafast Lasers: Modelocking
Explores ultrafast lasers and modelocking techniques for pulse generation and manipulation.
Laser Fundamentals: Coherence and Noise
Explores laser fundamentals, including coherence and noise characteristics, such as relaxation oscillations and shot noise.
Ultrafast pulse characterization: optical techniques
Explores ultrafast pulse characterization using optical techniques, covering pulse propagation, measurement methods, and autocorrelation.
Nonlinear Optics: Optical Kerr Effect and Phase Conjugation
Explores nonlinear optics phenomena, including optical rectification, frequency conversion, and phase conjugation.
Femtosecond Pulse Measurement
Explores femtosecond pulse measurement techniques and applications in laser engineering.
Femtosecond Laser Pulses
Explores femtosecond laser pulse generation, nonlinear optics, pulse compression, and laser systems for ultrafast pulses.
Active-Passive Modelocking: Fundamentals and Applications
Covers the fundamentals of active and passive modelocking in ultrafast lasers.
Chirped Pulse Amplification: Ultrashort Laser Pulses
Explores chirped pulse amplification for ultrashort laser pulses and the significance of Carrier-Envelope Phase stabilization.
Ultrafast nonlinear optics
Covers second and third-order nonlinear processes, ultrashort pulse characterization techniques, and optical parametric amplification.
Laser Systems
Covers the fundamental concepts of laser operation, including dispersion theory, gain and resonators, different types of laser systems, noise characteristics, optical fibers, ultrafast lasers, and nonlinear frequency conversion.
Laser Systems: Theory and Applications
Covers modules on laser systems, including basic operation, noise characteristics, and modern applications.
Laser Fundamentals and Applications
Explores laser fundamentals, systems, beam quality, and noise characteristics in lasers, including relaxation oscillations and shot noise.
Introduction to Ultrafast Optics
Introduces the fundamentals of ultrafast optics, covering light pulses, dispersion, mode-locked lasers, and chirped pulse amplification.
Quantum Optomechanics: Molecular Vibrations and Light Correlations
Delves into quantum correlations between light and molecular vibrations, exploring Raman scattering, phonon quantization, and optomechanical systems.
Nonlinear Optics III: Light-Matter Interaction
Covers pulsed optics, coherent spectroscopy, and nonlinear optical effects.
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