Abstract: A method, apparatus, system, and computer program product for displaying information. A display system comprises a display device with pixels, a lenticular lens system, a sensor system, and a controller. The lenticular lens system is located on the pixels in the display device. The sensor system is positioned to detect a position of eyes of an authorized user with respect to the display device. The controller determines an authorized viewing angle of each lenticular lens to the eyes of the authorized user in the lenticular lens system using the position of the eyes of the authorized user and turns on a set of the pixels such that the authorized user sees information at the authorized viewing angle.

Abstract: An electronic apparatus mounted on a vehicle is provided. The electronic apparatus includes an output unit configured to output driving information on the vehicle, a sensor configured to sense a gaze of a user in the vehicle, and a processor configured to, in response to a position on a plane of the sensed gaze being included in a specific region, control the output unit to output the driving information.

Abstract: A light field display apparatus and a method for calibrating a display image thereof are provided. The method for calibrating a display image includes: dividing a display image to generate a plurality of block images; displaying the block images by a display, and passing the block images through a light field device to generate a combination image; providing an image capturer to capture the combination image, and comparing the display image and the combination image to generate error information; receiving user parameters; and adjusting at least one of the block images in the display image according to the user parameters and the error information. Without providing a mechanical adjustment device, the light field display apparatus of the invention can compensate for display errors that may be caused by the device-internal parameters and the user parameters, which not only enhances display quality, but also enhances convenience in use.

Abstract: Methods, systems, and articles are described herein related to video coding with post-processing indication.

Abstract: A multi-camera electronic device and a control method thereof are proposed. The method includes the following steps. At least one camera of the electronic device is used for scene detection to generate photographing analysis information. All the photographing analysis information is collected, and joint photographing information including a joint target is generated through a communication process among all the cameras. An individual photographing parameter of each camera is generated according to the joint photographing information. Each camera is controlled to capture an image of the scene by using its individual photographing parameter to respectively generate a corresponding output image.

Abstract: An apparatus and method for processing a holographic image. The apparatus calculates a first calculation result with respect to an image for the left eye and a first calculation result with respect to an image for the right eye and stores the results at different memory addresses of a storage. Thereafter, the apparatus calculates values of a waveform of light to be modulated by a spatial light modulator by performing a second calculation that uses all of the first calculation results stored in the storage. An image window of the image for the left eye and an image window of the image for the right eye are spatially separated from each other by the apparatus in a viewing window of a hologram image reproduced via the spatial light modulator.

Abstract: According to one implementation, a stereoscopic image display system includes a computing platform having one or more hardware processor(s), a system memory storing a software code, an autostereoscopic display, and a user tracking unit controlled by the hardware processor(s). The hardware processor(s) execute the software code to utilize the user tracking unit to detect a left eye location and a right eye location of a user of the stereoscopic image display system, and to determine a left eye image and a right eye image corresponding to an output image of a content being played out by the stereoscopic image display system based on the respective left eye location and right eye location of the user. The hardware processor(s) further execute the software code to render the left eye image and the right eye image using the autostereoscopic display to generate a three-dimensional (3D) image of the output image.

Abstract: The present disclosure relates to a grating and a method for manufacturing the same, a method for driving a grating, and a naked eye three-dimensional display system. The grating includes a simplest grating and a driving signal line, the simplest grating is composed of a plurality of grating units arranged in sequence, the driving signal lines are connected to the grating units, and the driving signal line is configured to transmit a driving signal to each one of the plurality of grating units according to different resolutions so as to drive each grating unit to present a light penetration state or a light blocking state such that a grating constant corresponding to the resolution is obtained by the simplest grating.

Abstract: The present disclosure relates to an LED lighting device for a mobile phone. The LED lighting device for a mobile phone includes a main body to which power is supplied, a fixing portion that is provided at a lower portion of the main body and is detachably coupled to a mobile phone, a lighting unit that is rotatably connected to a front of the main body and emits light when DC power is applied thereto, and a connection bar that connects the main body to the lighting unit.

Abstract: Aspects of the present disclosure relate to systems and methods for determining a resampler for resampling or converting non-Bayer patter color filter array image data to Bayer pattern image data. An example device may include a camera having an image sensor with a non-Bayer pattern color filter array configured to capture non-Bayer pattern image data for an image. The example device also may include a memory and a processor coupled to the memory. The processor may be configured to receive the non-Bayer pattern image data from the image sensor, divide the non-Bayer pattern image data into portions, determine a sampling filter corresponding to the portions, and determine, based on the determined sampling filter, a resampler for converting non-Bayer pattern image data to Bayer-pattern image data.

Abstract: An editing apparatus includes a processor and a memory. The processor performs processes. The processes include causing a print image to be displayed in a first area, and a mark and at least one portion of a target character string to be displayed in a second area. The processes include causing a selection image to be displayed in a third area. The processes include performing a first determination whether a corresponding block included in the print image overlaps with the selection image. The processes include causing the entire corresponding block to be displayed in a first residual area. The processes include performing a second determination whether the mark overlaps with the selection image. The processes include reducing a size of the target character string. The processes include causing the mark and at least one portion of a reduced character string to be displayed in a second residual area.

Abstract: A large mirroring element is located in front of an occupant who sits in a front seat of an autonomous on-road vehicle. The large mirroring element provides the effect of reflecting light arriving from the occupant's direction. Optionally, a camera takes video of the outside environment in front of the occupant, sends the video to a computer that generates a representation of the outside environment in front of the occupant at eye level, and a display located in front of the occupant presents the representation to the occupant.

Abstract: Disclosed is a light guiding valve apparatus including an imaging directional backlight, an illuminator array and an observer tracking system arranged to achieve control of an array of illuminators which may provide a directional display to an observer over a wide lateral and longitudinal viewing range, wherein the number of optical windows presented to the observer as viewing windows is controlled dependent on the lateral and longitudinal position or speed of an observer.

Abstract: Head-mounted displays (HMDs) for virtual reality (VR) provide backlit illumination when the LCD rows corresponding to a non-dominant eye of the viewer are being updated. For example, when a human viewer operates a VR computer in the form of a smartphone with an LCD screen embedded in specialized goggles (e.g., Google Cardboard), the human viewer may specify that his/her right eye is dominant. In this case, the VR computer times the backlit illumination to be activated when the rows of LCD pixels in the field of view of the non-dominant, i.e., left, eye are being updated. When the rows of LCD pixels in the field of view of the dominant, i.e., right eye are being updated, the VR computer deactivates the backlit illumination.

Abstract: An autostereoscopic display provides an extremely deep projection area by observing a relationship between a desired depth of projection and an autostereoscopic display design that includes a focal length of lenticles of a lenticular array and a number of views. The relationship specifies a projected depth at which lenticular crossover can occur for a given autostereoscopic with the specific lenticular focal length and number of views. Approximations can be used to simplify the relationship such that the projected depth is directly related to a product of the focal length and the number of views. To reduce optical aberrations, lenticles of the lenticular array include meniscus-cylinder lenses.

Abstract: An exemplary content generation system generates a first orthographic projection and a second orthographic projection. The first and second orthographic projections are each representative of a core portion of a scene and are directed inwardly toward one another from a boundary of the core portion of the scene. The content generation system further generates a perspective projection representative of a peripheral portion of the scene external to the core portion of the scene. The content generation system further generates a representation of the scene that includes a first frame sequence depicting the first orthographic projection, a second frame sequence depicting the second orthographic projection, and a third frame sequence depicting the perspective projection. Corresponding methods and systems are also disclosed.

Abstract: A multiview image display apparatus is provided. The multiview image display apparatus includes a depth adjuster configured to adjust a depth of an input image, a renderer configured to perform rendering on multiview images based on the depth-adjusted image, a crosstalk compensator configured to perform crosstalk inverse compensation on the rendered multiview images, a display configured to arrange the crosstalk inverse compensated multiview images in a preset arrangement pattern and display the crosstalk inverse compensated multiview images arranged in the preset arrangement pattern, and a controller configured to estimate crosstalk, and control the depth adjuster to adjust a depth value of a region that satisfies a preset condition to a preset depth value based on the estimated crosstalk.

Abstract: A head mounted display (HMD) comprises a display panel with a first portion including an active area, and a second portion electrically coupled to the first portion of the display panel. The display panel is configured to receive content and compensation content from a VR console for driving the first portion and the second portion of the display panel, respectively. The compensation content is based on modification of the content to be displayed on the first portion of the display panel to mitigate crosstalk in the first portion of the display panel.

Abstract: Systems and methods are disclosed for creating a machine generated avatar. A machine generated avatar is an avatar generated by processing video and audio information extracted from a recording of a human speaking a reading corpora and enabling the created avatar to be able to say an unlimited number of utterances, i.e., utterances that were not recorded. The video and audio processing consists of the use of machine learning algorithms that may create predictive models based upon pixel, semantic, phonetic, intonation, and wavelets.

Abstract: A display method for a display device is provided. The display method comprises activating a Head Mounted Theater (HMT) mode, the HMT mode displaying two images which are substantially same each other on first and second areas respectively, separated from each other, in a display area of the display device; and adjusting a display time, for displaying a black screen in the first and second areas, of a unit frame time when the HMT mode is activated.

Abstract: A computer-implemented system and method of reproducing visual content are described. The method comprises capturing a reference image of a calibration pattern projected on a surface at an initial position and at an offset position, the offset position relating to a projection offset from the initial position by shifting the calibration pattern a predetermined amount; and determining, using the reference image, a spatial capture offset for the calibration pattern between the initial position and the offset position, the spatial capture offset measuring a spatial shift of the calibration pattern in the reference image. The method further comprises determining a scale using the spatial capture offset and the projection offset; decoding a portion of a captured image, the captured image including the visual content and the calibration pattern, to determine a position within the calibration pattern by applying the determined scale, and reproducing the visual content based on the determined position.

Abstract: An information processing apparatus specifies that material data for generating a virtual-viewpoint content at what time is stored in a storage device that stores a plurality of material data for generating a virtual-viewpoint content; and outputs, based on a result of the specification, information for causing an image to be displayed, the image indicating a time at which a virtual-viewpoint content can be generated.

Abstract: The disclosure discloses a display device, a display system and a three-dimension display method. The display device includes a display panel and at least one camera device arranged on the periphery of the display panel, where each of the at least one camera device includes at least two depth cameras, and a depth-of-field range of any one of the depth cameras does not fully overlap with depth-of-field ranges of the other depth cameras; and the display panel is configured to display a 3D image formed by processing image information captured by the at least one camera device.

Abstract: A display exposure monitoring module configured to monitor the exposure of a person to at least a display, the module including a communication component configured to receive display exposure data indicative of the exposure of the person to a display, a memory storing computer executable instructions and configured to store the received display exposure data; and a processor for executing the computer executable instructions, wherein the computer executable instructions includes instructions for processing the display exposure data to generate display exposure information indicative of an alert information and/or a visual behavior recommendation and/or an activation parameter.

Abstract: A parallax barrier, a display device and a manufacturing method thereof are disclosed. The parallax barrier includes a plurality of strip-shaped polarizing portions and a plurality of strip-shaped transparent portions, the plurality of strip-shaped polarizing portions and the plurality of strip-shaped transparent portions extend in the same direction, and the plurality of strip-shaped polarizing portions and the plurality of strip-shaped transparent portions are alternately arranged. With the parallax barrier, naked eye or multi-view display can be achieved by light splitting, and the curing non-uniformity in the curing and bonding process can be alleviate to increase the manufacturing yield.

Abstract: Systems and techniques for mapping the position of multiple display screens include receiving an image of multiple display screens having a unique encoding mechanism (e.g., QR code) displayed on each of the display screens, where the multiple display screens are configured in an arrangement. A virtual map of the unique encoding mechanisms is created by determining coordinates of the unique encoding mechanism displayed on each of the display screens using the image. A virtual map of the multiple display screens in the arrangement is created by determining coordinates of the multiple display screens using the virtual map of the unique encoding mechanisms. Electronic content is rendered on the arrangement of the multiple display screens using the virtual map of the multiple display screens.

Abstract: The present disclosure relates to an image processing device and an image processing method which are capable of improving the image quality using a plurality of images captured by a plurality of imaging units. The presence or absence of mutual parallax is determined using a main image including a low sensitivity high resolution image captured by a high resolution imaging unit and a sub image including a low resolution high sensitivity image captured by a high sensitivity imaging unit, and when there is parallax, similar pixels searched in the sub image are synthesized with respective pixels of the main image through a search synthesis process, and when there is no parallax, pixels at the same position are synthesized through an optimal synthesis process. The present disclosure can be applied to an imaging device.

Abstract: A mixed reality assembly includes a curved mirror, a display apparatus, a motion detection module, and a display control module. The display apparatus is within a focal length of the curved mirror and has a display surface facing the curved mirror. The motion detection module is configured to detect a motion of a real object. The display control module is configured to control a display image on the display surface in response to the detected motion of the real object.

Abstract: A system, method or compute program product for restricting convergence and divergence when viewing stereo 3D imagery. The technique includes receiving data representing a 3D virtual scene, receiving data indicating an eyepoint and a three-dimensional frustrum rendering region with the three dimensional frustum rendering region identifying a position and orientation of a render plane, receiving data indicating a user stereo comfort region, rendering virtual objects in a first portion of the 3D virtual scene that is in the three-dimensional frustrum rendering region and within the user stereo comfort region onto the render plane according to a first type of projection, and rendering virtual objects in a second portion of the 3D virtual scene that is in the three-dimensional frustrum rendering region and outside the user stereo comfort region onto the render plane according to a different second type of projection.

Abstract: The present invention relates to a head-up display for a vehicle configured to change display positions of a plurality of virtual images displayed through a windshield of the vehicle or the like to implement augmented reality and a control method thereof, and a head-up display for a vehicle according to an embodiment of the present disclosure may include a mirror unit comprising a first mirror for reflecting first and second image lights toward a windshield of the vehicle; a display layer located at the windshield of the vehicle to display a first virtual image corresponding to the first image light in a first region, and display a second virtual image corresponding to the second image light in a second region; and a controller configured to change an inclination of the first mirror to change a display position of the first and the second virtual image.

Abstract: A parallax viewer system allows 3D content, such as 360 degree 3D panoramas or other 3D environments, to be viewed by a user through a traditional 2D screen. A parallax viewer system operating on a user device can use a user-facing camera and a 2D screen to simulate a 3D environment for a user viewing the 2D screen. By changing the rendered view of the 3D environment as the user's head moves with respect to the screen, the parallax viewer system can provide many of the immersion benefits of a VR or 3D display using a traditional 2D display. In some implementations, the parallax viewer system can be calibrated to work in new situations (for example, on a new user device) by determining the relationship between the user-facing camera and the screen used to display the virtual environment.

Abstract: There is provided an information processing device, an information processing method, and a program capable of suppressing a user's uncomfortable feeling while reducing the burden on the user, the information processing device including: a first display control unit configured to perform first control with respect to a position of a display object in a depth direction, the position being perceived by a user on a basis of an eye movement; and a second display control unit configured to perform second control with respect to a state of the display object, the state not including the position in the depth direction as a state. The first display control unit and the second display control unit perform control based on a first relation in a first range in the depth direction, and perform control based on a second relation in a second range in the depth direction, the second relation being different from the first relation, the second range being different from the first range.

Abstract: Transmitting image data, and generating a three-dimensional (3D) image, may include generating one or more images associated with corresponding fields of view of one or more viewpoints that a display is configured to provide to a user, generating image data based on the images, and transmitting the image data to a target device. The one or more images may be generated based on weaving one or more images to generate one or more panel images. An image device that may receive the image data may generate one or more first images based on the image data, select one or more second images from the first images, and generate a panel image based on weaving the selected second images.

Abstract: An exemplary virtual reality content generation system manages state data representing a virtual reality scene. Based on the state data, the system generates a scene representation of the virtual reality scene that includes a set of surface data frame sequences each depicting a different projection of the virtual reality scene from a different vantage point. The different projections include a plurality of orthographic projections that are generated based on orthographic vantage points and are representative of a core portion of the virtual reality scene. The different projections also include a plurality of perspective projections that are generated based on perspective vantage points and are representative of a peripheral portion of the virtual reality scene external to the core portion. The system further provides the scene representation to a media player device by way of a network.

Abstract: The present invention relates to a method of determining content screening suitabilities in a multi-projection theater including a plurality of projection planes. More particularly, the present invention relates to a method of determining content screening suitabilities based on a series of operation equations using content attribute values, such as the horizontal length and vertical length of an output screen when content is played back, and theater attribute values, such as the length and height of the surface of a front or side wall within a theater building. The method may include calculating at least one of a screen attribute value and a theater attribute value, calculating a suitability based on the screen attribute value or the theater attribute value, and determining whether the calculated suitability falls within a predetermined range.

Abstract: A scanner includes: a first mirror having a plurality of concavities configured to reflect light from a document; a sensor group having a sensor chip with a photoelectric conversion element line configured to detect light reflected by the concavity; and an aperture member having a plurality of apertures corresponding one-to-one to the concavities and disposed between the first mirror and the sensor group on an optical path of light reflected by the concavity; the equivalent f-number of the aperture being 6 or greater.

Abstract: Disclosed embodiments provide techniques for adjusting the Z-index of an augmented reality (AR) object. When an AR object covers a first object, the user gazes at the first object for a predetermined amount of time, and then the AR object Z-index is adjusted with respect to the Z-index of the first object, such that the AR object is now rendered behind the first object, such that the user can continue to view the first object. The first object can be a physical object, a virtual object, or another augmented reality object. This allows the user to conveniently continue viewing the first object. Embodiments provide techniques for reverting the Z-index of the AR object at a later time when the user is ready to respond to the AR object. In this way, the user experience for augmented reality systems is enhanced.

Abstract: Disclosed herein is a method for generating a composite image, including using at least one hardware processor for obtaining at least two images; obtaining composite spatial data that identifies contiguity characteristics of each image of the at least two images; generating a template of the composite image, wherein the template provides a predetermined arrangement of the sections according to the contiguity characteristics identified in the image; sectioning the at least two images into predetermined number of sections according to the template; splicing the sections together according to the template; generating the composite image from the sections of the at least two images; wherein presence of at least one contiguity characteristic in each image generates an composite image that is ambiguous that can trigger an alternating switch in perception and awareness of each image scene and by establishing figure and ground relationship to create a depth illusion.

Abstract: Disclosed is a VR/AR device. In one embodiment, a device is disclosed comprising a housing comprising a processor disposed within the housing; a telescopic member connected to the housing via a rotatable connector at a first end of the telescopic member; and a display device connected to a second end of the telescopic member, the display device communicatively coupled to the processor and configured to rotate about an axis of the telescopic member while displaying virtual or augment reality content.

Abstract: A depth information processing device includes a first image capturing device, a second image capturing device, and a processor. The first image capturing device captures a reference image, and the second image capturing device captures a target image. The processor is coupled to the first image capturing device and the second image capturing device. The processor selects a reference block from the reference image, selects a plurality of target blocks corresponding to the reference block from the target image with different sample periods, and generates the depth information according to the reference block and a selected target block of the plurality of target blocks.

Abstract: Aspects of the disclosed apparatuses, methods and systems provide elimination of distortion induced by an optical system that reflects light from an image source. An inverse mapping of the distortion is created for the optical system. The display system applies the inverse mapping to an image prior to display to introduce a distortion to the displayed image that is the inverse of the distortion introduced by the optical system. As a result, the distortion in the displayed image is canceled by the distortion of the optical element providing the user with an image that is substantially distortion free.

Abstract: Embodiments of the present disclosure provide a dual-vision display device and a driving method thereof. The dual-vision display device includes: a first directional speaker and a second directional speaker. The first directional speaker is configured for directionally playing a first audio associated with a first video signal when a picture corresponding to the first video signal is viewed in the first view zone. The second directional speaker is configured for directionally playing a second audio associated with a second video signal when a picture corresponding to the second video signal is viewed in the second view zone.

Abstract: An optical layer and a display device including the same, where the optical layer includes optical components slanted a angle ? with respect to a pixel included in a display panel, and disposed at an interval of a pitch l, and the slant angle ? and the pitch l satisfy l=2g×tan(VAL/2) and a=l/(2g×tan(VAP/2)).

Abstract: A method of displaying a light field to at least one viewer of a light field display device, the light field based on a 3D model, the light field display device comprising a plurality of spatially distributed display elements, the method including the steps of: (a) determining the viewpoints of the eyes of the at least one viewer relative to the display device; (b) for each eye viewpoint and each of a plurality of the display elements, rendering a partial view image representing a view of the 3D model from the eye viewpoint through the display element; and (c) displaying, via each display element, the set of partial view images rendered for that display element.

Abstract: Embodiments of the present disclosure relate to continuous and/or binocular time warping methods to account for head movement of the user without having to re-render a displayed image. Continuous time warping allows for transformation of an image from a first perspective to a second perspective of the viewer without having to re-render the image from the second perspective. Binocular time warp refers to the late-frame time warp used in connection with a display device including a left display unit for the left eye and a right display unit for the right eye where the late-frame time warp is performed separately for the left display unit and the right display unit. Warped images are sent to the left and the right display units where photons are generated and emitted toward respective eyes of the viewer, thereby displaying an image on the left and the right display units at the same time.

Abstract: In an example display device for displaying a stereoscopic image, plural stereoscopic pixels composed of pixels for right eye and pixels for left eye are arranged in the horizontal direction and the vertical direction. A parallax barrier according to a vertical display mode or a horizontal display mode is formed. The pixel for right eye and the pixel for left eye each include at least one sub pixel for each of red, blue, and green. In the vertical display mode, sub pixels at first intervals in the horizontal direction are not allowed to emit color lights, and sub pixels at second intervals in the vertical direction are allowed to emit color lights. In the horizontal display mode, sub pixels at second intervals in the vertical direction are not allowed to emit color lights, and sub pixels at first intervals in the horizontal direction are allowed to emit color lights.

Abstract: The present disclosure relates devices and a method for monitoring a display image (2) in a transparent optical projection display. They disclose a display image monitor (1) comprising a fiber optic face plate (4) and an image sensor (5). The fiber optic face plate (4) comprises a first surface (4a) with optic fiber ends and a second surface (4b) with corresponding optic fiber ends and transfers light from the first surface (4a) to the second surface (4b) through the optic fibers, wherein the first surface abuts against a part (2a) of the display image (2) at a focused image plane (2b) and thus the light of the part of the display image enters the optic fiber ends and wherein the second surface is arranged to direct the part of the display image to the image sensor, thereby transferring the part of the display image to the image sensor.

Abstract: Systems and methods for compensating for at least one optical aberration in a vision system of a viewer viewing a display. Image data for an image to be displayed is received, at least one parameter related to at least one optical aberration in the vision system of a viewer is received and an aberration compensated image to be displayed is computed based on the at least one received parameter related to the vision system of a viewer and on at least one characteristic of the light field element. The aberration compensated image is displayed on the display medium, such that when a viewer whose vision system has the at least one optical aberration views the aberration compensated image displayed on the display medium through a light field element, the aberration compensated image appears to the viewer with the at least one aberration reduced or eliminated.

Abstract: Features for a lightweight stereoscopic viewing client are described. The client can generate accurate ground point coordinates from selections within the lightweight viewer by accumulating the transformations from original image sources to the images used to render the stereoscopic scene to accurately predict error for a point selection. The viewer may also be decoupled from a permanent image store allowing on-demand retrieval of images via a network for stereoscopic viewing.

Abstract: A stereoscopic image display device and a method of driving the same are provided. The stereoscopic image display device includes: a display panel; a patterned retarder transmitting light from the display panel as first and second polarization components; a data driving circuit driving data lines of the display panel; a gate driving circuit driving gate lines of the display panel; a 3D formatter: separating input 3D image signal into first and second eye image data; and arranging the first and second eye image data according to a vertical k-divisional operation to generate an original frame; and a timing controller: dividing one frame into k sub-fields with time-divisional driving; and controlling the data driving circuit and the gate driving circuit such that: the first eye image data are displayed in odd-numbered sub-fields with spatial-divisional driving; and the second eye image data are displayed in even-numbered sub-fields with spatial-divisional driving.