A hologram generation device includes: a hologram object generation unit for generating a hologram target object composed of planar component bodies in an exploded view in which a plurality of canvases and a 3D object which form a screen area of a flat display panel are exploded in each of at least three directions; a hologram generation unit for generating a three-dimensional hologram of the 3D object by outputting the hologram target object through the flat display panel toward reflective surfaces, respectively, corresponding to the at least three directions; and an interaction providing unit for providing two-way interaction with the three-dimensional hologram in connection with a user terminal.

A hologram generation device includes: a hologram object generation unit for generating a hologram target object composed of planar component bodies in an exploded view in which a plurality of canvases and a 3D object which form a screen area of a flat display panel are exploded in each of at least three directions; a hologram generation unit for generating a three-dimensional hologram of the 3D object by outputting the hologram target object through the flat display panel toward reflective surfaces, respectively, corresponding to the at least three directions; and an interaction providing unit for providing two-way interaction with the three-dimensional hologram in connection with a user terminal.

A stereoscopic image display system includes: a plurality of projectors arranged side by side with predetermined spacing and project respectively viewpoint images for installation positions in the same direction, the viewpoint images being related to the same object; a screen displaying a superimposed image for the object, based on two adjacent images, among the projected images, that are the closest from a line-of-sight direction of an observer; and an image holding unit holding information about a first viewpoint image to which pattern information for shifting a phase corresponding to a predetermined period is added and information about a second viewpoint image from which the pattern information is subtracted, which are generated from each of a plurality of base images as the viewpoint images to be respectively projected by the plurality of projectors. Each projector projects the first and second viewpoint images related to preceding and succeeding stages onto the screen.

Methods, apparatus, devices, and systems for displaying three-dimensional objects by individually diffracting different colors of light are provided. In one aspect, an optical device includes: a first optically diffractive component including a first diffractive structure configured to diffract a first color of light having a first incident angle at a first diffracted angle, a second optically diffractive component including a second diffractive structure configured to diffract a second color of light having a second incident angle at a second diffracted angle, a first reflective layer configured to totally reflect the first color of light having the first incident angle and transmit the second color of light, and a second reflective layer configured to totally reflect the second color of light having the second incident angle. The first reflective layer is between the first and second diffractive structures, and the second diffractive structure is between the first and second reflective layers.

Methods, apparatus, devices, and systems for displaying three-dimensional objects by individually diffracting different colors of light are provided. In one aspect, an optical device includes: a first optically diffractive component including a first diffractive structure configured to diffract a first color of light having a first incident angle at a first diffracted angle, a second optically diffractive component including a second diffractive structure configured to diffract a second color of light having a second incident angle at a second diffracted angle, a first reflective layer configured to totally reflect the first color of light having the first incident angle and transmit the second color of light, and a second reflective layer configured to totally reflect the second color of light having the second incident angle. The first reflective layer is between the first and second diffractive structures, and the second diffractive structure is between the first and second reflective layers.

An augmented reality display system is configured to direct a plurality of parallactically-disparate intra-pupil images into a viewer's eye. The parallactically-disparate intra-pupil images provide different parallax views of a virtual object, and impinge on the pupil from different angles. In the aggregate, the wavefronts of light forming the images approximate a continuous divergent wavefront and provide selectable accommodation cues for the user, depending on the amount of parallax disparity between the intra-pupil images. The amount of parallax disparity is selected using a light source that outputs light for different images from different locations, with spatial differences in the locations of the light output providing differences in the paths that the light takes to the eye, which in turn provide different amounts of parallax disparity. Advantageously, the wavefront divergence, and the accommodation cue provided to the eye of the user, may be varied by appropriate selection of parallax disparity, which may be set by selecting the amount of spatial separation between the locations of light output.

A display system is configured to display a stereoscopic three dimensional relief effect in aerial space from a two dimensional image source. The display system has a reflector, having a generalized cylindrical concave surface. The two dimensional image source is arranged between the first side and the second side facing the generalized cylindrical concave surface. The reflector reflects light from the two dimensional image source outward as an aerial image. The aerial image exhibits the stereoscopic three dimensional relief effect. A support structure is operably connected to the reflector and the two dimensional image source. The reflector and the two dimensional image source are adapted to be individually rotated and tilted relative to one another while their position is physically secured.

Disclosed is a smart phone, a computer monitor or a tablet comprising an infinity glass cover. In some embodiments, the phone, computer monitor or tablet further comprises adjustable LED lights, placed inside the phone, computer monitor or tablet.

Disclosed is a smart phone, a computer monitor or a tablet comprising an infinity glass cover. In some embodiments, the phone, computer monitor or tablet further comprises adjustable LED lights, placed inside the phone, computer monitor or tablet.

An aerial display apparatus includes: a display device configured to display an image; an optical device configured to allow light from the display device to be transmitted therethrough, and configured of a transparent material; and a mirror device configured to reflect light from the optical device and display an image in an aerial space on a side opposite to the optical device. The optical device includes a first optical member having a first thickness and a second optical member having a second thickness greater than the first thickness.