Abstract: One or more techniques to reduce or eliminate the false depth of objects that move along the axis of ocular separation when displayed using time division multiplexing. Experiments can be performed to determine a perceived depth of an object moving with known velocity. Then, when rendering stereoscopic image pairs, the location of the object can be modified to change the perceived stereoscopic depth of the object to compensate for the false depth. In one technique, the images can be displayed with alternating left- and right-precedence to reduce the perception of false depth.

Abstract: A display image is superimposed and displayed on an outside image in a preferred manner. An optical system superimposes a display image displayed on a display device onto an outside image, and leads the display image to an eye of an observer. A display control unit controls the display size and the display position of the display image on the display device so that the display image is displayed in an image superimposition region (a flat region) detected from the outside image. For example, the display control unit controls the display state of the display image in accordance with the state of the image superimposition region in the outside image. Also, the display control unit performs control to selectively display the display image in a line-of-sight region or outside the line-of-sight region in accordance with the line of sight of the observer.

Abstract: A method of driving a display panel includes determining a first black gap corresponding to a 2D mode and a second black gap corresponding to a 3D mode. The first and second black gaps are different from each other, the first and second black gaps correspond to a voltage difference between a black voltage of a first polarity and a black voltage of a second polarity, and the first and second polarities are opposite to each other with respect to a reference voltage. The method further includes dividing a voltage difference between a white voltage of the first polarity and the black voltage of the first polarity to generate a plurality of gamma voltages of the first polarity, and dividing a voltage difference between a white voltage of the second polarity and the black voltage of the second polarity to generate a plurality of gamma voltages of the second polarity.

Abstract: The purpose of the present invention is to provide a display device in which the occurrence of the crosstalk can be suppressed. A display unit includes a display panel (12), a storage unit (54), a confirmation unit (56), and a correction unit (52). The display panel displays a synthetic image. The storage unit stores respective crosstalk levels set with respect to a plurality of areas (13a, 13b, 13c) that the display panel has. The confirmation unit that confirms in which one of the plurality of areas a pixel exists that displays an image that a viewer is supposed to see, among the plurality of images contained in the synthetic image. The correction unit reads the crosstalk level corresponding to the area, among the plurality of areas, in which the confirmation unit confirms the pixel displaying the image that a viewer is supposed to see exist, from the storage unit, and corrects the gray scale level data of the pixel displaying the image that a viewer is supposed to see, by using the crosstalk level.

Abstract: A stereoscopic display system including a display apparatus and an image guiding plate is provided. The display apparatus provides diverge images. The display apparatus includes a plurality of stereoscopic display unit groups. Each of the stereoscopic display unit groups includes at least one stereoscopic display unit. Each of the stereoscopic display units includes a plurality of pixel groups. In each of the stereoscopic display units, the pixel groups provide a plurality of image beams corresponding to parts of the diverge images. Different stereoscopic display units correspond to different parts of the diverge images. The image guiding plate is disposed on a transmission path of the image beams. The image guiding plate includes a plurality of optical structures arranged periodically, so as to respectively guide the image beams to a plurality of directions. Furthermore, an image display method of the foregoing stereoscopic display system is provided.

Abstract: Techniques described herein provide a method for defining virtual content for real objects that are unknown or unidentified at the time of the development of the application for an augmented reality (AR) environment. For example, at the time of development of an AR application, the application developer may not know the context that the mobile device may operate in and consequently the types or classes of real object and the number of real objects that the AR application may encounter. In one embodiment, the mobile device may detect unknown objects from a physical scene. The mobile device may then associate an object template with the unknown object based on the physical attributes, such as height, shape, size, etc., associated with the unknown object. The mobile device may render a display object at the pose of the unknown object using at least one display property of the object template.

Abstract: A projection device management system includes two or more projection devices which project images on a projection surface; and a management device which corrects the image projected by each projection device based on information on each projection device and manages information for maintenance of each projection device, the two or more projection devices being installed in the same theater.

Abstract: The present invention enhances the player's gameplay visual, feedback and other experiences by taking advantage of optical adapters, feedback mechanics, advancements in theatrical audio, frame rate throttle, meta-file object framework for storage and retrieval, calibration advancements, vocal command enhancements, voice object lookups, facial/body scan, color/clothing coordination, party or celebration capabilities, noise cancellation, interactive object placement, heart rate monitor, pan-tilt-zoom camera advances, cooperative gameplay advances and programming advancements.

Abstract: Systems and methods directed to augmented reality environments on mobile devices having a single camera are disclosed. The single camera of the mobile device captures the images of one or more markers, and based on the relative size of the markers, determines the position of the camera and the absolute distance relative to the markers. The mobile device establishes a zero parallax plane set at the bottom of the 3D virtual object superimposed on the physical marker. Reduced alignment errors occur between the lower end of the virtual object and the real-world markers, and the virtual object appears to be standing on the real-world object. As a result, the augmented reality stereo experience for the user is more comfortable as the display is matched between virtual objects and the real objects to make the overall scene more realistic.

Abstract: The present invention discloses a substrate for a liquid crystal display panel, the liquid crystal display panel and a display device. The substrate comprises: a base substrate; a color layer disposed on the base substrate; and first and second transparent electrodes disposed on opposite sides of the color filter layer and electrically connected with the color filter layer. A color of the color filter layer can be changed based on gray scale of an image to be displayed on the liquid crystal display panel by applying a voltage signal to the color filter layer through the first and second transparent electrodes, thereby a light leakage in a dark state of the liquid crystal display panel is avoided, and thus it is possible to improve contrast of the liquid crystal display panel.

Abstract: The image display control device includes a thumbnail image display control unit that displays a thumbnail image of a tomographic image forming a three-dimensional image, a display instruction receiving unit that receives an instruction to display the three-dimensional image, and a tomographic image display control unit that displays a plurality of tomographic images on a display screen which is different from a display screen on which the thumbnail image is displayed such that the tomographic images are sequentially switchable when the instruction to display the three-dimensional image is received. The thumbnail image display control unit newly generates a thumbnail image of the tomographic image displayed immediately before the display of the tomographic image ends, changes the current thumbnail image to the new thumbnail image, and displays the new thumbnail image.

Abstract: A polarization conversion system (PCS) is located in the output light path of a projector. The PCS may include a polarizing beam splitter, a polarization rotating element, a reflecting element, and a polarization switch. Typically, a projector outputs randomly-polarized light. This light is input to the PCS, in which the PCS separates p-polarized light and s-polarized light at the polarizing beam splitter. P-polarized light is directed toward the polarization switch on a first path. The s-polarized light is passed on a second path through the polarization rotating element (e.g., a half-wave plate), thereby transforming it to p-polarized light. A reflecting element directs the transformed polarized light (now p-polarized) along the second path toward the polarization switch. The first and second light paths are ultimately directed toward a projection screen to collectively form a brighter screen image in cinematic applications utilizing polarized light for three-dimensional viewing.

Abstract: A video data processing method and/device for display adaptive video playback are disclosed. The video data processing method includes transmitting extended display identification data (EDID) indicating capabilities of a sink device to a source device via an interface, the EDID including electro optical transfer function (EOTF) type information for identifying EOTF supported by the sink device, receiving video data from the source device via the interface, and playing the received video data back.

Abstract: A liquid crystal lens includes a first lens electrode, a second lens electrode, bus lines, and a contact portion. The first lens electrode is disposed in at least a display area of the liquid crystal lens. The second lens electrode is disposed in at least the display area. The bus lines are disposed in a peripheral area of the liquid crystal lens, the peripheral area being disposed outside the display area, the first lens electrode and the second lens electrode being connected to respective ones of the bus lines. The contact portion overlaps the bus lines and electrically connects the respective bus lines to the first lens electrode and the second lens electrode.

Abstract: Aspects of the present invention include an apparatus comprising a recognition unit configured to recognize real object in an image. The apparatus may further comprise a determining unit configured to determine a stability indicator indicating a stability of the recognition, and a display control unit configured to modify a display of a virtual object according to the stability indicator.

Abstract: A method for coding at least one holographic pattern recording a light signal representative of light received by a perspective object in a scene. The method includes: determining, from the light signal and for each point xj(1?j?M) of the holographic pattern, a set of N light rays passing through the point and corresponding respectively to N different viewing positions for viewing the pattern; generating from the M sets of N determined light rays, a plurality N of two-dimensional views of the object corresponding respectively to the N viewing positions of the pattern, by causing M determined rays to intersect at each of the viewing positions that are contained in a viewing plane parallel to a plane containing the holographic pattern; arranging the N generated views as a multi-view image of the object, the N views corresponding respectively to sub-images of the multi-view image; and compressing the multi-view image.

Abstract: Systems and methods for viewing stereoscopic television are described. The methods generate stereoscopic views from 3D content; synchronize with external view ware (e.g., shuttered glasses) to include shutter information and viewing geometry; sequence 3D content for multiple viewers at multiple perspective views; and output to a display component for viewing.

Abstract: There is provided an image processing method including acquiring a degree of attention of a viewer to a stereoscopic input image, acquiring a relation between the degree of attention and a disparity value for stereovision from each pixel of the input image, and weighting a disparity value of a pixel having the high degree of attention on the basis of the relation between the degree of attention and the disparity value, and increasing the disparity value of the pixel having the high degree of attention.

Abstract: According to one embodiment, an electronic apparatus includes a virtual identification information generator and a display controller. The virtual identification information generator generates a virtual identification information item to virtualize the display, for each of two or more external devices wirelessly connected to the electronic apparatus by use of a wireless communication module, based on specific identification information of the display including information indicative of properties of the display. The display controller displays image signals transmitted from the external devices on a display. The display image signals are generated by the external devices based on the virtual identification information items.

Abstract: A display method and apparatus are provided. The method includes selecting at least one content to be focused of the plurality of content being displayed, adjusting a disparity value so that the selected content has a different depth value from other content, and displaying the content of which the disparity value has been adjusted.

Abstract: An apparatus and method for forming a light field image includes projecting vertices of a graphic object to a far plane corresponding to a first distance directed to a screen reproducing a light field, and forming the light field image with respect to the graphic object using the vertices projected to the far plane.

Abstract: Polarizing beam splitters and systems incorporating such beam splitters are described. More specifically, polarizing beam splitters and systems with such beam splitters that incorporate multilayer optical films and reflect imaged light towards a viewer or viewing screen with high effective resolution are described.

Abstract: An image projection system projects a single image on an image projection region from a plurality of image projection sections and includes section that detects checker intersection coordinates in a corrected checkered sheet image, a section that calculates a first projective transformation matrix from the checker intersection coordinates, a section that generates first and second spatial code images, a section that acquires boundary lines in the first and second spatial code images, and acquires first intersection coordinates of the boundary lines, a section that calculates a second projective transformation matrix for projective transformation of the first intersection coordinates, transformed using the first projective transformation matrix, into second intersection coordinates distributed over an entire sub-region of the image projection region, and a section that transforms image data by using the second projective transformation matrix.

Abstract: An image processing apparatus includes a stereoscopic effect adjustment unit that receives left eye images and right eye images applied to three-dimensional image display, and performs stereoscopic effect adjustment by correcting the received images which are input images, wherein the stereoscopic effect adjustment unit performs a reduction process or an enlargement process in a transverse direction for at least any ones of the left eye images and the right eye images, and generates corrected images where parallax is adjusted.

Abstract: A method and apparatus for providing a three-dimensional (3D) image is provided. In the method, first-viewpoint image data and second-viewpoint image data that provide a 3D image are obtained. Time information that represents points of time that the first-viewpoint image data and the second-viewpoint image data are to be processed is produced, based on relation information to indicate that the first-viewpoint image data and the second-viewpoint image data are a pair of pieces of image data. The first-viewpoint image data, the second-viewpoint image data, and the time information are transmitted. The first-viewpoint image data is transmitted in a first stream, and the second-viewpoint image data is transmitted in a second stream.

Abstract: A three-dimensional (3D) display device for providing an input-output interface using a dynamic magnetic field control is disclosed, the device including a display unit to display a 3D image, a magnetic field generation unit to generate a magnetic field, and a control unit to dynamically control the magnetic field generation unit to generate a 3D magnetic field associated with the 3D image.

Abstract: An apparatus for projecting a space image in accordance with an embodiment of the present invention includes: a display unit configured to display an image; and an array of prisms having a plurality of prisms connected with one another to have one lateral planes of the respective prisms form one plane and configured to refract light corresponding to the image through the prisms to a predetermined position at which a user can recognize the image.

Abstract: A display panel is disclosed. The display panel includes: at least one first data line, at least one second data line, at least two first pixel columns, and at least two second pixel columns. In two adjacent ones of subpixel rows, the first data line is electrically connected to one of first subpixels in one of the first pixel columns and one of second subpixels in one of the second pixel columns, and the second data line is electrically connected to one of the second subpixels in the one of the second pixel columns and one of the first subpixels in another one of the first pixel columns adjacent to the one of the second pixel columns.

Abstract: A monitor for representing autostereoscopically, three-dimensionally perceivable pictures includes a matrix screen with a multitude of subpixels which are arranged in lines and columns and which may be changed in their illumination intensity and may be put together into a multitude of picture points, a control device for activating the subpixels in dependence on picture information of at least two stereoscopic fields, in a manner such that the picture points are divided in at least two subgroups for reproducing in each case one of the fields, and a barrier raster, with which light coming from the picture points of each of the subgroups may be led into in each case one of several observation zones which lie in a laterally displaced manner, said one of several observation zones being assigned to this subgroup by way of this.

Abstract: According to one embodiment, a liquid crystal optical device includes first and second substrate units and a liquid crystal layer. The first substrate unit includes a first substrate having a first major surface, and a first electrode extending along a first direction. The second substrate unit includes a second substrate and a first opposing electrode. The liquid crystal layer is provided between the first substrate unit and the second substrate unit and includes a first portion provided on a side of the first substrate unit and a second portion provided on a side of the second substrate unit. The first portion has a vertical alignment. The second portion has a horizontal alignment. A long axis of liquid crystal molecules in the second portion aligns along a second direction perpendicular to the first direction.

Abstract: Disclosed are a method for displaying 3D images and a broadcast receiver. The method for displaying 3D images according to one embodiment of the present invention comprises the steps of: receiving broadcasting signals including video data and 3D object data; decoding the 3D object data, the 3D object data including texts or image information for a 3D object, output position information of the 3D object, and disparity information of the 3D object; obtaining parallax values from the disparity information and producing distortion compensation coefficients using the parallax values; adjusting a display size of the 3D object using the distortion compensation coefficients; and outputting and displaying the 3D object.

Abstract: Embodiments of the present disclosure use non-blocking writes (NBWs) to send high priority information (e.g., cache writebacks) on a designated channel that is separate from a channel used for other commands (e.g., normal memory write commands). By using NBWs and a designated channel to send cache writebacks, the cache writebacks will not be blocked by normal memory write commands. For example, an endpoint device may indicate that a TLP includes an NBW. Based on the indication, the root complex may send the NBWs on a dedicated NBW channel such that the NBW is not blocked by normal memory writes.

Abstract: A depth map is generated from at least a first and a second image. A plurality of reference pixels are selected in the first image. A cost function is used to associate each reference pixel with a respective pixel in the second image. A masking operation is used to identify a subset of pixels in a block of pixels surrounding a reference pixel and the cost function is based on the identified subset of pixels. A disparity between each reference pixel and the respective pixel in said second image is determined, and a depth value is determined for each reference pixel as a function of the respective disparity. A depth map is generated based on the determined depth values.

Abstract: An image display apparatus capable of displaying a 3D image includes: an image display section including partition regions partitioned in a row direction and a column direction; a display control section; and a light control section arranged at a front surface side of the image display section and including a plurality of separation elements each configured to separate light of the right eye image and light of the left eye image in displaying the 3D image. Each separation element is arranged so as to extend linearly and be tilted with respect to the column direction, and an arrangement pitch of the separation element in the row direction is non-integer times that of an arrangement pitch of the partition region in the row direction, the integer times being less than 4.5 times.

Abstract: A stereoscopic image display apparatus includes: a distance measuring unit that measures a distance to a viewer; a selecting unit that selects parallax images having a binocular parallax amount corresponding to the measured distance to the viewer from parallax images of a display object based on the measured distance to the viewer as a stereoscopic image pair; and a display control unit that causes a display unit to display the selected stereoscopic display image pair.

Abstract: A display unit includes: a display section having a plurality of pixels in a first group and a plurality of pixels in a second group, and performing a display operation by switching a display based on a first type of frame image during a first period and a display based on a second type of frame image during a second period; and a driving section performing a first driving to drive the plurality of pixels in the first group without driving the plurality of pixels in the second group during the first period, and performing a second driving to drive the plurality of pixels in the second group without driving the plurality of pixels in the first group during the second period.

Abstract: There is provided an image processing method including analyzing contrast according to a spatial frequency of an input image for each RGB pixel, referencing a database in which a relationship between a crosstalk degradation amount and a disparity transition for each RGB pixel is stored in association with contrast according to spatial frequencies of various images, and acquiring a relationship between a crosstalk degradation amount and a disparity transition for each RGB pixel, the relationship corresponding to the contrast according to the spatial frequency of the input image, integrating the relationship between the crosstalk degradation amount and the disparity transition, the relationship having been acquired for each RGB pixel, and calculating disparity corresponding to a predetermined threshold set to the crosstalk degradation amount in the integrated relationship between the crosstalk degradation amount and the disparity transition.

Abstract: A display device includes a display panel including a plurality of pixels, a shutter panel including a driver circuit, a liquid crystal, and light-transmitting electrodes provided in a striped manner, and a positional data detector configured to detect a positional data of a viewer. The shutter panel is provided over a display surface side of the display panel, a width of one of the light-transmitting electrodes in the shutter panel is smaller than that of one of the plurality of pixels, and the driver circuit in the shutter panel is configured to selectively output signals for forming a parallax barrier to the light-transmitting electrodes. The parallax barrier is capable of changing its shape in accordance with the detected positional data.

Abstract: There is provided a display processing apparatus including a largest phase viewpoint determining part configured to determine a largest phase viewpoint having the largest phase among viewpoint images at a plurality of viewpoint positions in a normal vision region for presenting a stereoscopic image, and a phase determining part configured to determine phases for the viewpoint images at the respective viewpoint positions so that the phase differences between the viewpoint images at the neighboring viewpoint positions are half or less of the phase at the largest phase viewpoint.

Abstract: A virtual object placed in a three-dimensional virtual space and a user interface are stereoscopically displayed on an upper LCD of a game apparatus. An image used for adjusting a display position of the user interface in the depth direction is displayed on a lower LCD. A user adjusts a UI adjustment slider by using a touch pen to adjust the parallax of the user interface. This allows the adjustment of the parallax of the user interface separately from the parallax of the three-dimensional virtual space, and thereby the depth perception of the user interface can be adjusted.

Abstract: An image display device displays a plurality of image elements of a left-view image and a plurality of image elements of a right-view image on a display in alternation in a horizontal direction, and displays an image element of a black image between each adjacent pairing of an image element of the left-view image and an image element of the right-view image. The image display device uses a parallax barrier to ensure that a left eye of a viewer only views the left-view image and that a right eye of the viewer only views the right-view image. Through the above configuration the image display device reduces occurrence of cross-talk regardless of position of the viewer or shape of the parallax barrier, and improves image quality of a stereoscopic image.

Abstract: According to the present invention, multiresolution decomposition is performed on a color component of image data by using a wavelet frame with orientation selectivity or a filter bank with orientation selectivity and subband signals are obtained; and when reconstructing an image by summing the obtained subband signals, coefficient processing is performed, between a decomposition phase and a synthesis phase in the multiresolution decomposition, on decomposition detail coefficients that are output from the decomposition phase such that the larger the energy of the decomposition detail coefficients is, the more small values are further reduced, and the smaller the energy of the decomposition detail coefficients is, the more small values are increased, or vise versa.

Abstract: A three-dimensional (3D) image display apparatus and method are provided. The 3D image display apparatus includes an image generating unit configured to generate an image, an active optical device configured to change a propagation path of light containing the generated image, and provide the generated image to multiple viewpoints that are located along a first direction parallel to the image generating unit, and a varifocal lens configured to vary a focal position of the generated image along a second direction away from the image generating unit.

Abstract: A system for computing a depth map comprising depth values representing distances to a viewer for respective pixels of an image. The system comprises an optimization unit (902) for determining a minimal depth related cost value of a current pixel, among a plurality of candidate cost values, wherein at least one of the candidate cost values is based on a depth related cost value of at least one pixel in a local neighborhood of the current pixel and on a difference between a color attribute of the at least one pixel in the local neighborhood and a corresponding color attribute of the current pixel, and at least one of the candidate cost values is based on a depth related cost value relating to at least one pixel outside the local neighborhood and on a difference between a color attribute of the at least one pixel outside the local neighborhood and a corresponding color attribute of the current pixel.

Abstract: A method for controlling an electronic device is provided, including displaying at least one portion of a screen displayed on a first display unit of a first electronic device on a second display unit of a second electronic device, receiving an input related to a first position in the second display unit; identifying a type of an object corresponding to the first position, and executing at least one function based on the type of the object.

Abstract: There is provided a display control device which includes an information acquisition unit for acquiring information related to an object image for a right eye to be observed by a right eye of a viewer and an object image for a left eye to be observed by a left eye of the viewer, a determination unit for determining whether scale correction of the information acquired by the information acquisition unit can be omitted, and a display control unit for performing control of stereoscopically displaying an object based on the information acquired by the information acquisition unit, in a case it is determined that the scale correction can be omitted.

Abstract: A method for visualizing three-dimensional images on a 3D display device, wherein an image to be visualized is supplied as an input image, is characterized in that at least one feature matrix is determined using the input image, the feature matrices defining light/dark information, and in that a display image for reproduction on the 3D display device is produced from the input image using said light/dark information. The invention further relates to a corresponding 3D display device.

Abstract: A method (300) and apparatus (400) for three-dimensional television (3DTV) image adjustment includes loading (342, 344) default 2D-to-3D image setting values from a default settings memory to a user adjustment settings memory, annunciating (346) the default 2D-to-3D image setting values, receiving (361, 362) a 2D-to-3D image settings value adjustment, saving (370) the 2D-to-3D image settings value adjustment in the user adjustment settings memory, and applying (390) the 2D-to-3D image settings value adjustment to a 2D-to-3D converted image. These methods and apparatuses allow individual users to set 3DTV image settings to their personal preferences to compensate for brightness reductions caused by 3DTV glasses, depth perception sensitivities, and other image quality factors.

Abstract: A stereoscopic video processing apparatus includes: a switch operation detection unit which detects a switch operation, made by a user, that is an operation to select a channel of a three-dimensional (3D) video or an operation for a fast-forward playback, a rewind playback, skipping, or locating a cue point of a 3D video; a frequency determination unit which determines a detection frequency indicating the number of switch operations per unit of time detected by the switch operation detection unit; and a video processing unit which performs processing to reduce a difference in depth between 3D videos before and after switching of the 3D videos when the detection frequency per unit of time determined by the frequency determination unit is higher than or equal to a predetermined frequency.

Abstract: A depth map is generated from at least a first and a second image. Generally, a plurality of reference pixels are selected in the first image and associated with respective pixels in the second image. Next, the disparity between each reference pixel and the respective pixel in said second image is determined, and for each reference pixel a depth value as a function of the respective disparity. In particular, each reference pixel is associated with a respective pixel in the second image via a matching and a filtering operation. The matching operation selects for each reference pixel a plurality of candidate pixels in the second image and associates with each candidate pixel a respective cost function value and a respective disparity value.