Computational Photography, an AI-powered Slopendium — 37 Integral and immersive imaging

▸Part 37 INTEGRAL AND IMMERSIVE IMAGING⧉

▸37.1 Stereo glasses⧉

37.1.1 Wheatstone's stereoscope (1838)⧉

37.1.2 Routing a different image to each eye⧉

37.1.3 Shooting and synthesizing a stereo pair⧉

▸37.2 VR goggles⧉

37.2.1 The three levels⧉

37.2.2 The optics: a microdisplay and a magnifier per eye⧉

37.2.3 Tracking, latency, and why headsets used to make people sick⧉

37.2.4 Passthrough, mixed reality, and where today's products sit⧉

▸37.3 3D displays with accommodation⧉

37.3.1 Four ways to deliver a focus cue⧉

37.3.2 The other gaps, and the ultimate display⧉

▸37.4 Lenticular displays⧉

⬜ figure not yet created

the parallax-barrier alternative)

37.4.1 Lippmann's integral photography: the common ancestor⧉

37.4.2 Multi-view, and the resolution–views tradeoff⧉

37.4.3 Light-field telepresence: Google Starline⧉

37.4.4 Display depth of field and antialiasing⧉

▸37.5 Holography⧉

37.5.1 Lippmann and Gabor: recording the wave⧉

37.5.2 Off-axis holography and the space-bandwidth wall⧉

37.5.3 Computational holography⧉

▸37.6 Retinal projection⧉

37.6.1 The Maxwellian view: focus set by the display, not the eye⧉

37.6.2 From the virtual retinal display to laser eyewear⧉

37.6.3 The frontier: writing to individual cones⧉