Spatial Frequencies and Wave Propagation

Related lectures (31)

Page 3 of 4

Covers properties of the Fourier Transform and diffraction patterns in microscopy.

Explores the principles of lasers, including lasing transitions and optical tweezers, with applications in various fields.

Discusses the energy, momentum, and generation of electromagnetic waves, along with their applications in optics and radiation pressure.

Explores electromagnetic fields, forces, waves, optics, interference, diffraction, refraction, reflection, lenses, and instruments.

Explains microscopy resolution using Abbe's theory and Rayleigh criterion.

Explores the application of Maxwell's equations to antennas, covering radiation, potentials, currents, waves, and polarization.

Explores making images with thin lenses, optical devices, beam divergence, and diffraction.

Explores the general solutions for wave propagation and Fourier transforms in periodic functions.

Explores human vision optics, eye structure, image formation, magnification, and wave divergence.

Covers the theory of electromagnetic waves and provides a detailed understanding of wave propagation.