Optics

6A01.05 Speed of a pulse in a coaxial cable: to measure the speed of an electromagnetic wave pulse in a coaxial cable.

6A01.10 Speed of light: to measure the speed of light.

6A10.10 Reflection from a flat mirror: to show that the angle of incidence is equal to the angle of reflection for a flat mirror.

6A10.23 Effects of diffuse reflection: to show the combined effects of refraction and diffuse reflection.

6A10.60 Location of image in a plane mirror: to show the location and orientation of the image of an object in a plane mirror.

6A20.10 Reflection from a curved mirror: to show that a curved mirror can cause light rays to converge or diverge.

6A20.11 Image formation in a concave and convex mirror: to compare the images produced by concave and convex mirrors.

6A20.30 Lamp in socket: to demonstrate an optical illusion with the real image of a concave mirror.

** 6A20.35 Optic mirage: to show a pair of concave mirrors can be used to produce an image which appears to levitate.

** 6A40.20 Schlieren Imaging: to demonstrate the index of refraction of air depends on its temperature.

6A42.10 Refraction block: to show refraction.

6A44.10 Total internal reflection: to show total internal reflection and the critical angle.

6A44.20 Refraction Tank: to show refraction, reflection, and total internal reflection.

6A44.40 Light pipes: to demonstrate the transmission of laser light achieved by a fiber optic cable.

6A44.44 Refraction water tank: to show how total internal reflection allows a fiber optic cable to transport light.

6A44.45 Laser waterfall: to demonstrate the total internal reflection of a laser beam in a stream of water.

6A60.10 Curved lenses: to demonstrate concave and convex lenses.

6A60.30 Real image formation: to show the formation of a real image from a convex lens.

6A70.10 Microscope: to show how a microscope magnifies an image.

6A70.20 Refracting Telescope: to demonstrate a refracting telescope.

6B10.10 Inverse Square Law: to show that light intensity decreases with the square of distance.

6B40.10 Blackbody peak shift: to demonstrate the peak shift of the spectrum of light emitted by a blackbody as the power to the blackbody is increased.

6B40.11 Light bulb on a Variac: to demonstrate the change in the color of the light emitted by a filament as its temperature increases.

6B40.12 Blackbody spectrum with spectrometer: to show a blackbody emission spectrum with a spectrometer.

6B40.20 Bischel Boxes: to show the radiation emitted by a black body depends only on its temperature.

6C10.10 Single slit diffraction: to show single slit diffraction.

6C10.61 Diffraction limited resolution: to show the limit of resolution due to diffraction. 

6C20.10 Poisson's Spot: to demonstrate diffraction of light by a small sphere.

6D10.10 Laser double slit: to demonstrate single slit diffraction and multiple slit interference. 

6D20.10 Number of slits: to show the change in the interference pattern as the number of slits increases.

6D30.10 Newton's Rings: to show diffraction of light by a thin glass disk.

6D30.22 Soap film interference: to demonstration interference by a thin soap film.

6D40.10 Michelson-Morley Experiment: to show there is no ether permeating space which transports light.

6F10.10 Color mixing: to show the result of mixing different combinations of red, blue and green light.

** 6F10.30 Recombining the spectrum: to show a prism can be used to separate or to recombine the component wavelengths of white light.

Link: https://drive.google.com/open?id=1WDEgHYggbpIkZojKFMguke2qDylzDBe1giSonsNp-ns

** 6F10.40 Absorption and transmission of light: to show absorption and transmission of light.

6F30.10 Projected spectrum of white light dispersion: to show that white light is dispersed by a prism. 

6F40.10 Rayleigh Scattering: to show the wavelength dependence of Rayleigh scattering.

6H10.10 Cross polarizers: to demonstrate the polarization of light.

6H10.12 Three polarizers: to demonstrate the effect of inserting a third polarizer between two crossed polarizers.

6H20.10 Brewster Angle: to show that a light ray reflected off the surface of water is maximally polarized at the Brewster angle.

6J10.10 Eye model: to demonstrate the mechanism the human eye uses to focus incoming light onto the retina as well as the function of corrective lenses.