This phenomenon is often used in polarizing prisms, and it gives rise to the waveguide properties of fiber optics.
The Imbert-Fedorov effect sees a transverse shift occur during this process, and it produces a lateral shift in the Goos-Hänchen effect. Its namesake type of fluorescence microscopy makes use of its associated evanescent wave.  The evanescent wave can be picked up if a piece of material is placed close by, giving rise to its (*) "frustrated" form. This phenomenon is often used in polarizing prisms, and it gives rise to the waveguide properties of fiber optics. Occurring above a critical angle given by Snell's law, for 10 points, name this phenomenon in which none of the light incident on a boundary refracts, instead remaining in the transmitting medium.
The Imbert-Fedorov effect sees a transverse shift occur during this process, and it produces a lateral shift in the Goos-Hänchen effect.
{total internal reflection} or {TIR}