Optical coherence tomography

Related lectures (30)

Covers the concept of a photon, its emission, coherence length, and the electromagnetic spectrum.

Explains how to calculate the air refraction index using interference fringes.

Explores interference patterns in mirrors, calculating distances and conditions for observing bright fringes on a screen.

Introduces quantum sensing through Mach-Zehnder interferometers, discussing photon distribution, beam splitters, and entanglement.

Explores the impact of multipath effects, modulation techniques, and channel characteristics on wireless communication.

Explores wave interference, superposition, coherence, and interference patterns from nearby sources.

Covers X-ray diffraction in crystals, focusing on diffraction principles and constructive interference.

Explores tissue optics, covering refractive index, absorption, and scattering mechanisms in biological tissues.

Explores nonlinear wave propagation, optical harmonics generation, and paraxial approximation concepts.

Explores non-perturbative susceptibility in nonlinear optics and discusses coherence, dipole moment, and saturation intensity.

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