Resolution Power Calculation

Related lectures (21)

Page 2 of 3

Covers Matrix Optics, ray vectors, matrices, and interfaces in optical systems.

Explains cardinal points, principal planes, and tracing rays through thick lenses in optical systems.

Explores the connection between matrix optics and ray optics in optical systems, focusing on ray tracing and imaging.

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

Covers the ray matrix of a lens and the matrix representation of lenses and curved mirrors.

Introduces the basic principles of ray optics, covering topics such as microscopy aspects, image formation, and laws of reflection and refraction.

Explores beam steering technologies and their applications in laser systems, focusing on principles, challenges, and practical implementations.

Covers critical and Kohler illumination, conjugate planes, and infinity corrected microscopes in microscopy.

Covers Fourier transformation and its application in optical detection using the concept of the Fourier house.

Covers electron microscope components, vacuum systems, aberrations, detectors, and specimen holders.