Abstract: The present disclosure provides a three-dimensional display device in which a pixel structure includes a plurality of sub-pixels arranged in rows and columns. In each column of sub-pixels, the sub-pixels are aligned. In each row of sub-pixels, each of the sub-pixels is staggered by half a sub-pixel with respect to an adjacent sub-pixel, and is different in color from the adjacent sub-pixel. The corresponding three-dimensional grating includes a plurality of strip-like grating structures periodically arranged in a horizontal direction, wherein the strip-like grating structures extend in the same direction that has a preset inclination angle with respect to the horizontal direction. Each strip-like grating structure corresponds to at least two sub-pixels in respective rows of sub-pixels which display different viewpoint images.

Abstract: Video data of an environment may be prepared for stereoscopic presentation to a user in a virtual reality or augmented reality experience. According to one method, a plurality of locations distributed throughout a viewing volume may be designated, at which a plurality of vantages are to be positioned to facilitate viewing of the environment from proximate the locations. For each location, a plurality of images of the environment, captured from viewpoints proximate the location, may be retrieved. For each location, the images may be reprojected to a three-dimensional shape and combined to generate a combined image. The combined image may be applied to one or more surfaces of the three-dimensional shape to generate a vantage. The vantages may be stored such that the vantages can be used to generate stereoscopic viewpoint video of the scene, as viewed from at least two virtual viewpoints corresponding to viewpoints of an actual viewer's eyes within the viewing volume.

Abstract: Provided is a device including a camera configured to capture an image of eyes of a user who is watching three-dimensional (3D) video; and a processor configured to obtain an eye feature of the user from the captured image of the eyes of the user, determine a degree of eyestrain degree of the user based on the obtained eye feature, and adjust a parallax of the 3D video according to the degree of eyestrain of the user.

Abstract: A stereoscopic image display device including a display panel including a plurality of sub-pixels arranged in a matrix defined by a horizontal direction and a vertical direction, the display panel having a changeable display direction; and a parallax unit on the display panel and including a plurality of optical elements having a tilt angle of 30° to 60° relative to the vertical direction and a pitch corresponding to a multiple of a pitch of the sub-pixels. Among the sub-pixels located to correspond to each of the optical elements, at least two sub-pixels, adjacently arranged, display the same view image.

Abstract: A method is provided for displaying content to a user. The method comprises displaying content in a first position. The method further comprises detecting an operating member; and determining a distance between the member and a device. The method still further comprises displaying, if the distance between the member and the device is less than a predefined distance, the content in a second position appearing to be behind the first position, with respect to the user.

Abstract: A virtual image generation system and method of operating same are provided. A left synthetic image and a right synthetic image of a three-dimensional scene are rendered respectively from a first left focal center and a first right focal center relative to a first viewpoint. The first left and first right focal centers are spaced from each other a distance greater than the inter-ocular distance of an end user. The synthetic image and the right synthetic image are warped respectively to a second left focal center and a second right focal center relative to a second viewpoint different from the first viewpoint. The second left and right focal centers are spaced from each other a distance equal to the inter-ocular distance of the end user. A frame is constructed from the left and right warped synthetic images, and displayed to the end user.

Abstract: A multi-view display device, including a controller that is operable to receive from a positioning device, position information representing positions of a left eye and a right eye of a viewer relative to the multi-view display. The viewer is able to activate a channel selection mode in which the multiview display simultaneously projects different stereoscopic channels on the side of his last position before starting the new mode, so he can see other channels by changing his head position. The viewer selects then a desired channel by which it ends the channel selection mode and switches the display to a mode where only one channel is stereoscopically displayed at a time.

Abstract: The stereoscopic image display device includes: an observer position measuring unit which measures the observing position of the observer; an image processing unit which calculates the relative position of the observing position of the observer and the stereoscopic display panel, calculates the luminance adjustment amount suited for stereoscopic image display for the relative position, and performs luminance adjustment processing on the image data according to the luminance adjustment amount; and a stereoscopic display panel unit which projects the image data on which the luminance adjustment processing is performed to the right eye and the left eye of the observer via the stereoscopic display panel.

Abstract: This fully-automated 3D photo booth uses a single-or dual-lens camera or other depth sensors. Depth algorithms process the pictures taken, which can be inserted into themed templates. A novel method of coarse segmentation separates the foreground and background. The photo booth dispenses an interlaced print and snap-in photo frame, or gives the option of viewing on a mobile device or sending via email or social media. On a mobile device, the 3D viewing is with a snap-on or adhesive optical overlay if available, using novel lenticules that solve Moiré artifacts. In the absence of an optical overlay, tilt sensors are used to move the viewpoint of the 3D scene model, to look around objects in the foreground, the same as if real objects were being tilted back and forth.

Abstract: The present disclosure provides an image processing system, an image processing method, a position determining method and a display system. The image processing system includes a processing module configured to process at least a portion of original views in an original image to be displayed currently, so as to obtain a target image including the processed views, each processed view including an identifier; and a display module configured to display the target image, so as to enable a viewer to determine, in accordance with a combination of the identifiers in the target image, a position for viewing a 3D image. According to the present disclosure, it is able to guide the viewer to view the glassless 3D image at an extremely low cost.

Abstract: An operating method of a display apparatus includes calculating a range of a movement of a user based on eye movement information indicating movements of eyes of the user; and adjusting a stereoscopic depth of a three-dimensional (3D) image based on the range of the movement.

Abstract: The present invention relates to conversion of 2D media to pseudo-3D left and right image pairs. In particular, it relates to imposing forced perspective on left and right versions of a 2D image. The distorted pair of images, when displayed, will be interpreted by a viewer as a 3D image. The pseudo-3D forced perspective image pairs can be produced without depth mapping of objects in scenes and without comparing the position of objects in successive image frames.

Abstract: One embodiment of the present invention sets forth a technique for broadcasting composited game content. The technique includes executing an application program to generate a first video frame of game content, and causing the first video frame to be displayed on a primary display device. The technique further includes compositing at least one graphical user interface (GUI) element with the first video frame to generate a composited frame. The technique further includes causing the composited frame to be displayed on an external display device by transmitting the composited frame to the external display device via a local display interface.

Abstract: In example embodiments, a system and method for presenting multiple content (e.g., programs) on a single presentation device to a plurality of viewers is provided. The method comprises causing presentation of a combined video stream on the single presentation device. The combined video stream combines video data for at least a first video content of a first content stream and a second video content of a second content stream. The first video content is viewable by a first viewer and the second video content is viewable a second viewer. A control signal is received from a handheld device of the first viewer that indicates an action to be performed on the first video content. The combined video stream is modified to cause the action to be performed on the first video content. The adjusting of the combined video stream has no effect on the display of the second video content.

Abstract: In order to perform an appropriate data transmission control, an information processing apparatus performs data transmission by using at least one of a wireless transmission channel of a high frequency band and a wireless transmission channel of a low frequency band, and performs real time image transmission with another information processing apparatus in accordance with a Wi-Fi certified miracast specification. Also, the information processing apparatus includes a control unit. This control unit executes a control to transmit a control signal relevant to Wi-Fi certified miracast to the other information processing apparatus by using the wireless transmission channel of the low frequency band.

Abstract: An operating method of a display apparatus includes calculating a range of a movement of a user based on eye movement information indicating movements of eyes of the user; and adjusting a stereoscopic depth of a three-dimensional (3D) image based on the range of the movement.

Abstract: A head mountable augmented reality see through near eye display system includes a see through augmented reality image focal distance modulator for changing a distance at which augmented reality images appear in focus and including at least one light transmissive surface through which real world objects are viewable. The system further includes a display for generating an augmented reality image and projecting the augmented reality image onto the see through augmented reality image focal distance modulator. The system further includes an augmented reality image focal distance controller for controlling the see through augmented reality image focal distance modulator to cause the augmented reality image to appear in focus a distance corresponding to a vergence distance and for changing the distance at which the augmented reality image appears to be in focus in correspondence with changes in the vergence distance.

Abstract: The present invention relates to a high resolution optical system. The optical system of the present invention includes, sequentially from an object side, a first lens having a positive refractive power and an object-side surface convex toward the object side; a second lens having a negative refractive power and an upwardly concave upper surface; a third lens having a positive refractive power; a fourth lens having a negative refractive power; a fifth lens having a positive refractive power and an upwardly convex upper surface; and a six lens having a negative refractive power and an upwardly concave upper surface.

Abstract: An apparatus for processing a stereo three dimensional video includes a memory to store an encoded stereo three dimensional (S3D) video frame of the stereo three dimensional video, where the S3D video frame comprising a left frame, right frame, and depth frame. The apparatus may include a processor to retrieve a pixel (x,y) of the depth frame, the pixel (x,y) comprising a reference device depth(x,y). The apparatus may also include a device aware decoder component to determine pixel pair positions for a left pixel in the left frame and right pixel in the right frame based upon the pixel (x,y), and to calculate a target device disparity for the pixel (x,y), based upon the reference device depth(x,y) and a screen size of a target device to present the S3D video.

Abstract: A stereoscopic display device (1) of the present invention includes a display panel (10), a switch liquid crystal panel (20), a first polarizing plate (15) and a second polarizing plate (24), and a control unit for moving a parallax barrier in which transmitting regions and non-transmitting regions are formed in periodic fashion in a predetermined alignment direction, in such a manner that the parallax barrier is moved in the predetermined alignment direction in accordance with position information, and causing the switch liquid crystal panel (20) to display the parallax barrier. A first alignment film (216) and a second alignment film (226) of the switch liquid crystal panel (20) are rubbed so that molecule long axes of liquid crystal molecules in the vicinities of the center of a liquid crystal layer (23) in the thickness direction in a state where no voltage is applied are oriented in a direction perpendicular to the alignment direction as viewed in a plan view.

Abstract: A naked-eye 3D image forming method. The method includes: determining an outline coordinate of display image of display device in a vertical plane; determining a coordinate of an observation point R including height h, and distance l; inclining the display device toward the horizontal plane to obtain a tilt angle ?; according to coordinates of the two points of the original image on the horizontal plane, the height h, length l and angle ? to calculate an outline coordinate of a present image; according to all coordinate points contained by the outline coordinate of the preset image, the height h, the length l and the tilt angle ? to calculate projection coordinate points on the display screen; converting the projection coordinate points into digital signals and inputting to the image expanding control module such that the display device forms the preset image on an image on the vertical plane.

Abstract: A three-dimensional (3D) display system is provided for displaying a 3D image. The 3D display system includes a display panel having pixels arranged at a pixel spatial period and a lens grating disposed together with the display panel. The lens grating further includes a plurality of lens units arranged at a first period and a plurality of non-lens units arranged at a second period. The second period is greater than one-third of the first period and less than two-thirds of the first period, and the plurality of lens units and the plurality of non-lens units are arranged such that the lens grating has a different spatial period from the pixel spatial period to reduce Moire fringe effect between the lens grating and the pixels of the display panel.

Abstract: A apparatus for generating a depth map includes a cube space setting unit configured to set cube space based on camera intrinsic parameters; a layer generating unit configured to extract objects from a planar image and generate a layer including each object; a layer editing unit configured to apply at least one of parallel translation and rotation in a depth direction for the layer based on at least one of translation input and rotation input; and a model projecting unit configured to place a model on the layer, set a depth value for a model area placed on an object area included in the layer as a depth value of the object and generate a depth map comprising the depth value corresponding to each layer.

Abstract: The disclosure relates to a 3D display device. The 3D display device includes a display panel and an electrochromic grating that is located on a light output side of the display panel; wherein the electrochromic grating comprises: a first transparent electrode layer, an electrochromic layer, a solid electrolyte layer and a second transparent electrode layer that are overlapped on a substrate of the display panel in sequence. As the solid electrolyte layer is used replacing the process in prior art that an upper and lower glasses substrates are used to package the electrochromic grating and thus avoiding complex packaging process, the 3D display device can be thinned. Further, as the electrochromic grating is directly formed on the substrate of the display panel, alignment between the electrochromic grating and the sub-pixels in the display panel can be more simple and accurate.

Abstract: An object classification unit 504 classifies objects placed in a virtual three-dimensional space into objects to be displayed on an optical transmission type HMD and objects to be displayed on a monitor 300 which is observed through the optical transmission type HMD. A video outputting unit 506 outputs a video of each object to the monitor 300 or the optical transmission type HMD based on a classification by the object classification unit 504.

Abstract: A display engine assembly comprises a first imager and a second imager to generate a left image and a right image, respectively, in a head-mounted display device. The left and right images are left and right components, respectively, of a single stereoscopic image. The display engine further comprises an optical waveguide optically coupled to the first imager and the second imager. The optical waveguide is part of a first optical path to convey the left image to a left eye of a user of the head-mounted display device and is also part of a second optical path to convey the right image to a right eye of the user of the head-mounted display device.

Abstract: In a liquid crystal display device, a first substrate adjacent to a liquid crystal display panel is subjected to rubbing in a first direction that is the same as a polarization axis direction of light emitted from the liquid crystal display panel, and a second substrate that interposes a liquid crystal layer with the first substrate is subjected to rubbing in a second direction at a right angle with the first direction. The second direction is made the same as the polarization axis direction of polarized sunglasses to allow visual recognition of the image using the polarized sunglasses. Electrode patterns formed by alternately providing narrow and wide electrodes are arranged on the upper and lower substrates in a direction at a right angle with each other so that the rubbing directions on the upper and lower substrates form a right angle to ensure stable 3D display.

Abstract: An encoder and method of encoding are provided for encoding at least one integral image representing at least one object in perspective in a scene and including a plurality of elemental images. The method of encoding includes generating a plurality of K sub-images on the basis of the plurality of basic images; arrangement of the sub-images in a predetermined pattern such as to form a multi-view image of the object, the views corresponding respectively to the sub-images; and adaptive compression of the multi-view image formed, as a function of the motion type of the object in the scene.

Abstract: A display device may include a signal controller to use a received image signal to generate sectional image signals, to determine a sequence for displaying sectional images that respectively correspond to the sectional image signals, and to use the sectional image signals to generate an image data signal. The sectional images may include a top left image, a bottom left image, a top right image, and a bottom right image. The device may further include a display panel to display the sectional images according to data signals generated based on the image data signal and according to the sequence. The sectional images may be portions of a whole image that has a size substantially equal to a display area of the display panel.

Abstract: A method for generating three dimensional (3D) displays. The method includes displaying a hologram that combines three (or more) images encoded into three (or more) different OAM channels, and the method also includes reflecting light from the displayed hologram to create a multichannel light beam. Then, the method involves decoding the multichannel light beam to decode and display the three encoded images. The decoding step includes displaying the three encoded images in decoded form in three view zones, three focal planes, or on three spaced-apart planes. The decoding is performed by a single decoding screen using holograms used for generating the three encoded images or is performed by three decoding screens configured based on a differing one of the holograms used for generating the three encoded images. The displaying of the hologram step includes operating a spatial light modulator (SLM) to display the hologram on a screen of the SLM.

Abstract: A three-dimensional (3D) display system is provided for displaying a 3D image including a first view image and a second view image to a viewer. The 3D display system includes an arrangement module, a processing module, and a displaying module. The arrangement module is configured to alternatingly arrange display units of the first view image and display units of the second view image on a display panel. The processing module is configured to obtain an information difference of a display unit of the second view image from the display units of the first view image, and re-calculate a pixel value of the display unit of the second view image. The displaying module is configured to display to the viewer the display unit of the second view image with the re-calculated pixel value via a light separation device.

Abstract: An image display device includes a display element having a unit of display comprising sub pixels displaying images for first and second view points, and an optical unit that distributes light emitted from respective sub pixels into different first directions. When a region surrounded a black matrix in the sub pixel is defined as an aperture, the sub pixels form a base unit that is an adjoining pixel pair including two sub pixels arranged with a data line therebetween. When virtual lines evenly dividing a width of the sub pixel in the first direction into K+1 pieces are presumed, K number of storage capacitor lines are arranged across at least one virtual line in the aperture. In the adjoining pixel pair, the K number of storage capacitor lines of one sub pixel are nonparallel to the K number of storage capacitor lines of the other sub pixel.

Abstract: A method includes dividing a backlight source and a liquid crystal panel into N row sections, preprocessing 3D images to output first images and second images of left and right eyes in a complementary format, while preserving odd and even row section images of original images of the left and right eyes, and sequentially scanning the first images and second images of the left and right eyes from top to bottom using the backlight source. The method further includes, after scanning a row section, controlling the backlight of the row section to be turned on and then turned off until the same row section of a next image starts to be scanned, and repeating until all images are scanned. The method thus provides a crosstalk-free 3D effect and reduces power consumption of the backlight source.

Abstract: The liquid crystal display apparatus is provided with a display unit, a video signal driving circuit, a scanning signal driving circuit, a common electrode potential controlling circuit, and a synchronizing circuit. The display unit has a scanning electrode, a video signal electrode, a plurality of pixel electrodes arranged in matrix form, a plurality of switching elements which transmit video signals to the pixel electrodes, and a common electrode. After the scanning signal driving circuit scans the entire scanning electrodes and transmits video signals to the pixel electrodes, the common electrode potential controlling circuit changes the potential of the common electrode into a pulse shape, overdrives video signals, or increases a torque required to return to a state in which no voltage is applied.

Abstract: Provided is a stereoscopic display device capable of achieving good stereoscopic images with a low level of crosstalk in a wide area. A stereoscopic display device includes: a display panel; a switching liquid crystal panel arranged to overlap the display panel; a control section that controls the display panel and the switching liquid crystal panel; and a position sensor that obtains position information about a viewer and supplies the same to the control section. The display panel includes first pixel lines and second pixel lines that are arranged alternately in a vertical direction. The control section switches between a plurality of display modes including a tracking three-dimensional display mode.

Abstract: The embodiment of the present invention provides a mask plate and a method of patterning using the mask plate, the mask plate comprising a light shielding area and an opening area, the edge of the opening area being in a concave-convex shape. The embodiment of the present invention, by setting the edge of the opening area of the mask plate in a concave-convex shape, can improve linearity of the matrix edge formed after the processes of coating, exposing, developing, roasting of the photoresist, so as to prevent the problem of generating a jagged or a wavy shape at the matrix edge of a color filter in a color film substrate, thereby improving uniformity of color display of a liquid crystal display. The effect is particularly significant for a product using a negative photoresist or with a relatively thin line width in the formed matrix.

Abstract: A control method applied in an electronic apparatus including a projecting unit and a depth detecting unit is described. The projecting unit is able to project first multimedia data onto a target object. The method includes detecting depth information of the target object by using a depth detecting unit; calculating a second parameter of the projecting unit according to the depth information of the target object and a first parameter of the projecting unit; and moving the projecting unit to a first position based on the second parameter of the projecting unit to make the projecting unit project a first display picture of the first multimedia data. The focusing of the projector can be executed quickly and accurately.

Abstract: A method and apparatus are provided for displaying a 3D image using a 2D image in an electronic device. Information related to an inclination of the electronic device is detected from a motion of the electronic device. The 3D image is generated by moving each of a plurality of image layers, which are derived from the 2D image, based on the detected information and motion parallax corresponding to the detected information. The 3D image is displayed.

Abstract: A light source device includes a plurality of light sources with different polarizations. A combined wavelength band of the light of a first polarization and second polarization is a first wavelength band. A combined wavelength band of a third polarization and fourth polarization is a second wavelength band. A plurality of selective transmission elements transmits one or more combined light of one or more polarizations and reflects one or more light of one or more polarizations. Thus, the light of the first polarization, the light of the second polarization and the light of the third polarization passing through a third selective transmission element, and the light of the fourth polarization reflected by the third selective transmission element proceed in the same direction.

Abstract: System and method for a visual display system with a two-way mirror, which is between the observation zone and the image display device, positioned at an angle to reflect a backdrop surface that may be wider than the image display device or a backdrop with mirrored sides to extend the visual perception of the backdrop surface. A camera may be included with the visual display system for telepresence applications. The two-way mirror may extend into wall panels on the sides to form a room that appears to extend in depth by the reflection of the wall panels and a backdrop panel.

Abstract: A camera device includes a single imaging sensor, a plurality of imaging objectives associated with the single imaging sensor, and a plurality of dedicated image areas within the single imaging sensor, each of the plurality of dedicated image areas corresponding to a respective one of the plurality of imaging objectives, such that images formed by each of the plurality of imaging objectives may be recorded by the single imaging sensor.

Abstract: An image display apparatus according to the present disclosure includes: a display panel having at least, first pixels that display a first parallax image and second pixels that display a second parallax image; and an image conversion element. The image conversion element includes: a plurality of first electrodes arranged at a predetermined pitch; a second electrode; and a liquid crystal layer. The image display apparatus according to the present disclosure simultaneously satisfies the following conditions, wherein f is a distance from the liquid crystal layer to the first pixels or the second pixels, r is a length equal to ½ of an arrangement pitch of the first electrodes, ?n is a birefringence of the liquid crystal molecules, P is an arrangement pitch of the first pixels and the second pixels, and d is a thickness of the liquid crystal layer: f ? 5 ? P ( 1 ) ? ? ? n < r 2 2 ? d · f .

Abstract: A wide viewing angle holographic image display method and apparatus are disclosed. The wide viewing angle holographic image display apparatus includes a scan line unit and a control unit. The scan line unit includes a plurality of lateral scan lines that represent different angles, respectively. The control unit performs control so that different data are output at the respective different angles, represented by the lateral scan lines, using the plurality of lateral scan lines.

Abstract: Provided is a 3D image display device, including: a display panel displaying an image; a lens panel positioned on the display panel and has layers formed of different materials, refractive indexes of the layers being varied according to a driving voltage supplied from the outside; and a lens panel driver supplying the driving voltage to the lens panel.

Abstract: An image display apparatus according to an embodiment of the present invention comprises: an IR emitter controller for recognizing a pair of 3D glasses connected to the image display apparatus; a video multiplexer for receiving a plurality of displayed video data using a plurality of pairs of 3D glasses, setting a frame rate for the plurality of video data to assign a frame period thereto, and multiplexing the plurality video data according to the frame period assigned at the set frame rate, when the plurality of pairs of 3D glasses is connected to the image data apparatus; and a display unit for frame-sequentially displaying the multiplexed video data.

Abstract: A video display apparatus can adjust the parallax level of stereoscopic video images in accordance with the video image size and allows a user to make further parallax adjustment. The video display apparatus acquires the video image size of the stereoscopic video images, sets a default value of a depth adjustment value for adjusting the parallax level of the stereoscopic video images based on the acquired video image size, changes the depth adjustment value when the user has provided an input representing a change in the depth adjustment value, sets a parallax adjustment level of the stereoscopic video images based on the changed depth adjustment value, and adjusts the parallax level of the stereoscopic video images based on the parallax adjustment level.

Abstract: To enable a viewer to recognize a stereoscopic image even when a posture of the viewer is changed in front of a display device by providing a stereoscopic image display apparatus including: a lens sheet which is adjacent to a display surface of a display device, and is configured by arranging a plurality of plano convex lenses along an arrangement direction of display elements, consecutively side by side while varying a distance from the display surface; a storage unit storing stereoscopic display images corresponding to parallax points with respect to a display object at a plurality of viewing points; a sensing unit which senses a posture changing amount of a visual organ of a human body; a selection unit selecting the stereoscopic display images for the respective viewing points according to the posture changing amount sensed; and a display controller allowing the stereoscopic display images on the display device.

Abstract: Compression of a video by segmentation, transformation, transform encoding, difference encoding, and muxing. The segmentation looks at energies of the frames, in order to find three different things: black frames which have energy less than the specified amount, consecutive frames which have energy difference is less than the specified amount, and changes in scene which have energy difference is more than a specified amount. If there is little or no energy or energy difference, then the frame is replaced by an indication rather than information about the frame itself; either an indication of a black frames or an indication of no change between two adjacent frames. If there is much energy, then this is taken as the beginning of a new scene, and used as an area to change group of frames.

Abstract: According to one embodiment, a stereoscopic image converting method includes: generating a first depth map comprising depth values of pixels of an input video, wherein the depth values are estimated based on an amount of a characteristic of the input video, and wherein the depth values are represented by pixel shading; generating a second depth map by correcting the depth values of pixels within a distance from each of right and left ends of the depth map to become closer to a depth value corresponding to a screen of a display not protruding forward or recede rearward in stereoscopic viewing as the pixels within the first distance are positioned closer to the each of the right and left ends of the depth map; and generating a multi-parallax image by shifting pixels of the input video by an amount horizontally based on the depth values of the second depth map.

Abstract: The present disclosure discloses a polarized three-dimensional display panel and a pixel cell thereof. The display panel comprises an array substrate, which includes a plurality of pixel cells arranged in a plurality of pixel zones configured by a plurality of scanning lines and a plurality of data lines arranged in a staggered manner.