Abstract: The present invention includes methods, systems, devices and associated processing logic for generating stereoscopic 3-Dimensional images and/or video from 2-Dimensional images or video. There may be provided a stereoscopic 3D generating system to extrapolate and render 2D complementary images and or video from a first 2D image and/or video. The complementary images and/or video, when combined with the first image or video, or a second complementary image or video, form a stereoscopic image of the scene captured in the first image or video. The stereoscopic 3D generation system may generate a complementary image or images, such that when a viewer views the first image or a second complementary image (shifted in the other direction from the first complementary image) with one eye and the complementary image with the other eye, an illusion of depth in the image is created (e.g. a stereoscopic 3D image).

Abstract: A display device includes: a display unit displaying plural viewpoint images; a light separation unit having plural transmitting portions and separating light from the display unit; and a display control unit controlling the timing of switching either of display positions of respective viewpoint images on the display unit and transmittance of respective transmitting portions of the light separation unit based on correlation information of the viewpoint images between frames.

Abstract: A system and method for increasing resolution of an object and increasing rendering speed by rendering with a lesser density for non-object regions. The system and method includes sampling a plurality of first rays in a first density through a volume, each first ray being in a separate section, if a sampling value difference of at least two first rays is above a first threshold, sampling a plurality of second rays in a second density, the second rays being in a first section of the separate sections, the first section being for one of the at least two first rays, and if a sampling value difference between a first one of the second rays and another ray is above a second threshold, sampling a plurality of third rays in a second section spatially different than the first section, the sampling of the third rays being at the second spatial density and the second section being a neighboring section to the first section.

Abstract: A digital map of a geographic area is displayed via a user interface, and a 3D representation of a building located in the geographic area is displayed on the digital map. A virtual camera is used to view the digital map, and the location of the virtual camera is changeable in response to user input. The external shell of the 3D representation is made increasingly transparent as a virtual camera approaches the 3D representation of the building to reveal indoor information for the building.

Abstract: Described is a technology by which a GPU-based photon mapping mechanism/algorithm uses a kd-tree to render arbitrary dynamic scenes. For each frame, the mechanism emits and traces a set of photons into the scene. When a photon hits a surface, it can either be reflected, transmitted, or absorbed based on the surface material. Once photon tracing is done, a kd-tree is built for the stored photons. To estimate the radiance value at an arbitrary surface point, the k-nearest photons are located and filtered. The photon tracing and photon kd-tree construction, as well as the radiance estimation using k-nearest neighbor (KNN) searches are performed on graphics hardware, e.g., a GPU. In one example, only caustic photons are traced, whereby a photon is terminated and stored once it hits a diffuse surface.

Abstract: Described herein is a telepresence system where a real-time a virtual hologram of a user is displayed at a remote display screen and is rendered from a vantage point that is different than the vantage point from which images of the user are captured via a video camera. The virtual hologram is based at least in part upon data acquired from a sensor unit at the location of the user. The sensor unit includes a color video camera that captures 2-D images of the user including surface features of the user. The sensor unit also includes a depth sensor that captures 3-D geometry data indicative of the relative position of surfaces on the user in 3-D space. The virtual hologram is rendered to orientate the gaze of the eyes of the virtual hologram towards the eyes of a second user viewing the remote display screen.

Abstract: A progressive mesh decoding apparatus, a progressive mesh decoding method and a computer readable recording medium using the same are provided. In the progressive mesh decoding method, a first desired resolution mesh is progressively reconstructed from a base mesh through vertex addition. Vertex level information indicating a resolution level of a mesh corresponding to a predetermined process of the first desired resolution mesh reconstructing process is recorded for respective vertices added at the predetermined process. In response to a second desired resolution mesh having a second desired resolution level lower than the first desired resolution level being requested, the second desired resolution mesh is reconstructed by deleting vertices from the first desired resolution mesh, wherein vertices to be deleted in a predetermined process of the second desired resolution mesh reconstructing process are determined based on the vertex level information.

Abstract: Methods and apparatus for representing a field over a triangular mesh are disclosed. A two-dimensional (2D) triangular map may be created for each triangle of a three-dimensional (3D) triangular mesh. The triangular map may be recursively subdivided to create a plurality of sub-triangles. The sub-triangles may be sampled, and an field may be measured or calculated at each level of the recursion. The map of field values may use various compression techniques and may also employ a delayed reading technique. The map may be multi-resolution, hierarchical, and partitioned.

Abstract: A user interface is provided whereby a user may generate a virtual target area representative of an actual target area, regardless of whether the actual target area has been constructed. Having a generated virtual target area, the user—via the user interface—may generate virtual representations of light to project onto the virtual target area. The virtual representations of light correspond to photometric data from actual light sources. In this manner, the user renders a real-time image representative of what an actual target area would look like illuminated with an actual lighting system. This, in essence, permits a user to evaluate the effectiveness of a lighting system in real time without committing to the purchase of a lighting system.

Abstract: A system for visualizing correlations between attributes in a data set or across multiple data sets is provided. A user may view a graphical representation (e.g., a histogram) of attribute values for a first attribute. The user may assign a variety of graphical indicators to various value ranges of the first attribute. The user may view a graphical representation of the second attributes. The user may “drag and drop” the graphical representation of the first attributes onto the graphical representation of the second attributes. The graphical representation of the second attributes may be updated to incorporate the graphical elements assigned by the user to the value ranges of the first attribute. The user may visually see potential correlations between the first and the second attributes based on the graphical elements associated with the first attributes displayed with the associated second attributes.

Abstract: A graph creation method includes setting on a plane a coordinate system in which three axis extend from an origin in a radial fashion, setting three evaluation results of three evaluation item for an evaluation object on each the three axis; determining a balance being one of center, circumcenter, incenter, orthocenter, and excenter of a polygon the vertices of which correspond to the three evaluation results set on the three axis; and creating on the coordinate system a graph in which the balance is set.

Abstract: Systems and methods are provided for supporting dynamic provenance annotations over data graphs. A method includes receiving a plurality of dynamic graphs representing dynamic provenance data. The method further includes evaluating a provenance query over the plurality of dynamic graphs to obtain an answer to the provenance query. The method additionally includes providing the answer to the provenance query to a user, using at least a display device.

Abstract: Systems and methods for navigating an imagery graph are provided. In some aspects, a first image is provided for display, where the first image corresponds to a first image node within an imagery graph, where the imagery graph comprises image nodes corresponding to images from a plurality of different imagery types, and where each image node in the imagery graph is associated with geospatial data. An indication of a selection of a predetermined region within the first image is received, where the predetermined region is associated with a position in the first image that corresponds to geospatial data associated a second image node within the imagery graph. A second image corresponding to the second image node is provided for display in response to the indication of the selection of the predetermined region.

Abstract: When rendering a stroked curve for display in a graphics processing system, an input stroked curve 1 defined in user space 2 is received by the system. The portion of a canonical space 5 that corresponds to the received stroked curve 1 is determined by determining the portion of a canonical curve 12 defined in the canonical space 5 that corresponds to the received stroked curve 1. Then, for each of a plurality of sampling points within one or more primitives 4 that are generated to cover the received stroked curve 1? following its projection into surface space 3, it is determined whether a corresponding location in canonical space 5 (to the sampling point in surface space 3) is within the portion of the canonical space that corresponds to the received stroked curve, e.g. by looking up suitable information that has been stored (in advance) in one or more graphics textures. Data for rendering the received stroked curve 1 (e.g.

Abstract: An input stroked curve that is received by a graphics processing system can be rendering using at least two, and preferably more, rendering processes that are available for use by the system. The process or processes that are used for rendering the received stroked curve are selected based on whether the input stroked curve comprises one or more regions having a particular characteristic or characteristics, e.g. whether the input stroked curve comprises one or more self-overlapping regions. Preferably, the at least two rendering processes are each capable of correctly rendering different sets of stroked curves. Furthermore, the least two rendering process preferably differ in the processing burden that they place on the graphics processing system.

Abstract: An OSD display control program product controlling OSD display of an image display device having a display screen, wherein the image display device includes a region ratio storage section storing, as region ratio information, the ratio of the pixel number of a region to the total pixel number of the display screen, the region in which the OSD display is performed, and the OSD display control program product makes a computer of the image display device realize: a total pixel number input step of inputting the total pixel number of the display screen as total pixel number information; a region ratio input step of inputting the region ratio information from the region ratio storage section; and a region pixel number determination step of determining, based on the total pixel number information and the region ratio information, the pixel number of the region in which the OSD display is performed.

Abstract: A moving image generation apparatus includes an image display unit, a partial image specification unit, a partial image cutout unit, and a moving image generation unit. The image display unit displays an image. The partial image specification unit specifies a partial image of a predetermined range corresponding to each of points in the displayed image. The partial image cutout unit cuts out a plurality of partial images from between two arbitrary partial images included in the specified partial images. The moving image generation unit generates a moving image based on the specified partial images and the cutout partial images.

Abstract: In particular embodiments, a method includes generating a 3D display of an avatar of a person, where the avatar can receive inputs identifying a type of a physiological event, a location of the physiological event in or on a person's body in three spatial dimensions, a time range of the physiological event, a quality of the physiological event, and rendering the physiological event on the avatar based on the inputs.

Abstract: Systems and methods for generating and concatenating 3D character animations are described including systems in which recommendations are made by the animation system concerning motions that smoothly transition when concatenated. One embodiment includes a server system connected to a communication network and configured to communicate with a user device that is also connected to the communication network.

Abstract: A system includes a computer apparatus, a means for display, and a means for storage. The computer apparatus is configured to perform a method of 3D animation. The method includes setting a first inter-axial distance between logical representations of a first set of two cameras, the first inter-axial distance being configured to produce a desired 3D effect for a target audience, setting a second inter-axial distance between logical representations of a second set of two cameras, the second inter-axial distance being based on the first inter-axial distance, setting a multi-rig spacing between the first and second sets of two cameras, the multi-rig spacing begin a value determined to reduce depth distortion effects in the 3D animation, and creating a stereoscopic frame set representing the 3D animation using the logical representations of the first and second sets of two cameras.

Abstract: A computer-implemented method includes comparing content captured during one session and content captured during another session. A surface feature of an object represented in the content of one session corresponds to a surface feature of an object represented in the content of the other session. The method also includes substantially aligning the surface features of the sessions and combining the aligned content.

Abstract: A new hardware architecture defines an indexing and encoding method for accelerating incoherent ray traversal. Accelerating multiple ray traversal may be accomplished by organizing the rays for minimal movement of data, hiding latency due to external memory access, and performing adaptive binning. Rays may be binned into coarse grain and fine grain spatial bins, independent of direction.

Abstract: In a raster stage of a graphics processor, a method for parallel fine rasterization. The method includes receiving a graphics primitive for rasterization in a raster stage of a graphics processor. The graphics primitive is rasterized at a first level to generate a plurality of tiles of pixels. The titles are subsequently rasterized at a second level by allocating the tiles to an array of parallel second-level rasterization units to generate covered pixels. The covered pixels are then output for rendering operations in a subsequent stage of the graphics processor.

Abstract: One embodiment of the present invention sets forth a technique for performing low latency computation on a parallel processing subsystem. A low latency functional node is exposed to an operating system. The low latency functional node and a generic functional node are configured to target the same underlying processor resource within the parallel processing subsystem. The operating system stores low latency tasks generated by a user application within a low latency command buffer associated with the low latency functional node. The parallel processing subsystem advantageously executes tasks from the low latency command buffer prior to completing execution of tasks in the generic command buffer, thereby reducing completion latency for the low latency tasks.

Abstract: A method and system for scheduling a media workload is disclosed herein. The method includes modeling a feature of the media workload. A GPU utilization rate and a memory bandwidth of the media workload may be determined. Additionally, the media workload may be scheduled by modifying the feature of the media workload in order to adjust the GPU utilization and the memory bandwidth.

Abstract: A system, method and a computer program product are provided for distributing prim groups for parallel processing in a single clock cycle. A work distributor divides a draw call for primitive processing into a plurality of prim groups according to a prim group size. The work distributor then distributes the plurality of prim groups to a plurality of shader engines for parallel processing of the plurality of prim groups during a clock cycle. The size of a prim group and a number of prim groups are scaled to the plurality of shader engines.

Abstract: A program module executing in a first process space of a mobile computing device receives a buffer request from a graphics driver running in a second process space of the mobile computing device, wherein the second process space is isolated from the first process space. The program module assigns a buffer to the graphics driver to store image data processed by a graphical processing unit (GPU) controlled by the graphics driver. The program module receives a release of the buffer from the graphics driver. The program module assigns the buffer to a media encoder driver for a hardware media encoder to encode the image data in the buffer into a file.

Abstract: Sequential write operations to a unit of compressed memory, known as a compression tile, are examined to see if the same compression tile is being written. If the same compression tile is being written, the sequential write operations are coalesced into a single write operation and the entire compression tile is overwritten with the new data. Coalescing multiple write operations into a single write operation improves performance, because it avoids the read-modify-write operations that would otherwise be needed.

Abstract: Image processing may be performed to generate a color image for display on a color display screen and a monochrome image for display on a monochrome display screen, where an overlap of the images may produce a resultant color image at one or more depths. The one or more depths may be determined by an amount of blur applied to one image and an amount of sharpness applied to other. The one or more depths may be determined by a gamma value of the monochrome image. Since the monochrome display screen may have fewer or no color filters and/or a lower resolution, the monochrome display screen may pass more light than conventional color display screens. As such, less light can be used to illuminate color images displayed at different depths using a color display screen and a monochrome display screen, thereby reducing energy consumption of the display device.

Abstract: A pixel data conversion method for display with delta panel arrangement converts an input video signal into a temporary video signal which is a first RGB signal with 960 horizontal resolution in strip panel arrangement and converts the temporary video signal into an output video signal which is a RGB signal with 320 horizontal resolution in delta panel arrangement. Each line of the output video signal has 960 pixels, wherein a sequence of red pixel, green pixel, and blue pixel is repeatedly arranged for an odd-numbered horizontal line, and a sequence of green pixel, blue pixel, and red pixel is repeatedly arranged for an even-numbered horizontal line. The position of each pixel in an even-numbered horizontal line has a half-pixel dislocation to the position of each pixel in an odd-numbered horizontal line.

Abstract: An overdrive device includes a training unit, an analysis unit and a Contrast adjustment unit. The training unit establishes a luminance difference look-up table (LUT) having an R2 number of luminance differences. Each of the R2 number of luminance differences represents a luminance difference between a measured display luminance value and a target luminance value of a display device when each of first and second viewing angle images correspond to any value of a grayscale range R. With respect to first and second viewing angle input image data, for pixel data therein corresponding to a same pixel position, the analysis unit looks up the luminance difference LUT to obtain a looked-up luminance difference, and accordingly calculates a luminance difference index. The contrast adjustment unit partially adjusts the grayscale of the second viewing angle image according to the luminance value index to obtain headroom for an overdrive operation.

Abstract: A method of processing an image signal includes: converting a source image signal into an image signal corresponding to a color space for a color gamut mapping; reducing a color gamut of the image signal; and mapping the image signal corresponding to colors within the reduced color gamut into an image signal corresponding to colors within a display color gamut, wherein the colors of the display color gamut are displayed by a display panel.

Abstract: Tone and/or gamut mapping apparatus and methods may be applied to map color values in image data for display on a particular display or other downstream device. A mapping algorithm may be selected based on location and/or color coordinates for pixel data being mapped. The apparatus and methods may be configured to map color coordinates differently depending on whether or not a pixel corresponds to a light source in an image and/or has special or reserved color values.

Abstract: The present invention discloses a method for RGB color space gamut conversion, including: projecting any point o in RGB color space having source graphic data onto points N, M; projecting point o? corresponding to point o onto points N?, M?; based on matrix equations between point N and point N?, and between point M and point M?, computing point N? and point M?; based on points N?, M?, computing point o? in target cube corresponding to point o in RGB color space having source graphic data; and computing target color after color conversion from any point in source graphic data. The invention also discloses an apparatus for RGB color space gamut conversion and a liquid crystal display device. With this, it is possible to perform color conversion in RGB color space, adjust color performance of output in hue and color purity, and accentuate specific color.

Abstract: A dithering method and associated apparatus is provided. The method synthesizes a dither pattern including a plurality of elements. At least two of the plurality of elements are of a same value, and at least two of the elements of the same value respectively associate with different driving polarities to prevent flickering. While sub-pixel data of a sub-pixel corresponds between two predetermined color levels of the sub-pixel, a color level displayed by the sub-pixel is determined from the two predetermined color levels according to a sum of the sub-pixel data and the element corresponding to the sub-pixel.

Abstract: A pixel data conversion method for display with delta panel arrangement converts an input video signal into a temporary video signal which is a first RGB signal with 640 horizontal resolution in a strip panel arrangement and converts the temporary video signal into an output video signal which is a RGB signal with 320 horizontal resolution in the delta panel arrangement. Each line of the output video signal has 960 pixels. A pixel size ratio is defined as a ratio of a pixel size of the delta panel to a pixel size of the strip panel. The 320 horizontal resolution is obtained by dividing the 640 horizontal resolution by the pixel size ratio and then by three.

Abstract: Provided herein is a method for implementing antialiasing including independently operating different portions of a graphics pipeline at different sampling rates in accordance with pixel color details.

Abstract: A map server generates vector descriptors in a non-raster format, each indicating a geometry of a respective map element, to render a first map image of a selected geographic region at a client device. The map server then provides the vector descriptors to the client device. Upon receiving an indication that a second map image for the selected geographic region is to be rendered at the client device, the map server generates a modification indication that indicates a set of one or more vector descriptors, each of which corresponds to a respective map element that is rendered in one but not both of the first map image and the second map image, and provides the modification indication to the client device, so that the client device can render the second map image using at least some of the vector descriptors and the modification indication.

Abstract: An image processing apparatus includes a display device that displays a plurality of windows having hierarchy levels in such a manner that a low-level window overlaps a high-level window, each of the plurality of windows containing a first object to close the subject window and one or more second objects to select items; an extraction portion that extracts, from one or more second objects in the high-level window, a selection candidate object that is likely to be selected by a user after the low-level window is closed; and a control portion that controls, when the extraction portion extracts the selection candidate object, the display device in such a manner that the first object in the low-level window overlaps the selection candidate object, or the first object in the low-level window is disposed close to the selection candidate object.

Abstract: Managing and displaying information relating to a locate operation and/or a marking operation to detect and/or mark a presence or an absence of at least one underground facility. First information relating to the locate operation and/or the marking operation is electronically received, wherein the first information includes image information. The image information is processed to improve at least one aspect of an image represented by the image information and thereby provide improved image information. Based at least in part on the improved image information, at least one electronic manifest is generated that documents a performance of the locate operation and/or the marking operation.

Abstract: An original image to be edited is displayed using hierarchical data. As a user draws a figure in a region of the image as an edit action, an image data updating unit generates a layer having a hierarchical structure composed of the rendered region only. More specifically, the image of the region to be edited is used as the lowermost hierarchical level, and upper hierarchical levels than this lowermost level are generated by reducing the lowermost level, as appropriate, so as to produce hierarchical data. As, during image display, it is checked that the updated region is contained in a frame to be displayed anew, the image of the layer is displayed by superposing the frame on the original hierarchical data.

Abstract: Computationally implemented methods and systems include presenting a first augmented view of a first scene from a real environment, the first augmented view to be presented including one or more persistent augmentations in a first one or more formats, the inclusion of the one or more persistent augmentations in the first augmented view being independent of presence of one or more visual cues in the actual view of the first scene from the real environment, obtaining an actual view of a second scene from the real environment that is different from the actual view of the first scene, and presenting a second augmented view of the second scene from the real environment, the second augmented view to be presented including the one or more persistent augmentations in a second one or more formats that is based, at least in part, on multiple input factors.

Abstract: A handheld device and methods of operation. The device includes a housing and a display. A device may include a MEMS inertial sensor disposed within the housing, wherein the MEMS inertial sensor is configured to sense a change in spatial orientation when the user reorients the handheld device. A system may include a processor disposed within the housing and coupled to the MEMS inertial sensor and to the display, wherein the processor is programmed to receive the change in spatial orientation of the handheld device, and wherein the processor is programmed output an indication of the change in spatial orientation on the display. A computer implemented method for a handheld computer system for determining spatial orientation is also disclosed.

Abstract: There is provided a display apparatus including a relation score calculation unit calculating a relation score indicating closeness of a relation between characters based on a common appearance relation using segment metadata indicating a segment in a moving image where each of the characters appears, and an object display unit displaying an object corresponding to each of the characters appearing in the moving image. Further, the object display unit displays a pair of objects corresponding to a pair of characters with a high relation score to be closely positioned to each other, and displays a pair of objects corresponding to a pair of characters with a low relation score to be positioned far from each other.

Abstract: Road information is compressed for map tiles of a map containing a network of roads. The map can have different sets of tiles for each zoom level. For a given zoom level, road segments can be grouped based on the class of the roads (e.g., interstate highway, state highway, divided highway, side street, etc.). The road segments of a particular class can be combined into paths, and a representative segment can be chosen for each path. The features of the representative segment can be used in displaying the corresponding path, thereby reducing the size used to store the path in a map tile. This reduce-size map tile can be transmitted more efficiently due to the smaller size.

Abstract: There is disclosed a method and apparatus for a user interface for page view zooming. The method comprises generating a default user interface including an electronic document. The method further includes receiving touchdown and hold data indicating that a user has interacted with a portion of the electronic document and beginning a continuous zoom process for that portion of the electronic document. The method further includes halting the zoom process once a user has released the touch over the portion of the electronic document and displaying the magnified document on the user interface. The method employs a similar operation to enable a de-zooming operation.

Abstract: Certain aspects of the present disclosure relate to a technique for generating simultaneous zoom in windows on a touch sensitive device. A first portion of the user content is zooming into by touching the display screen in a proximity of the first portion using the touch input device while retaining an original zoom size of a first remaining portion of the user content. A second portion of the user content from the first remaining portion is zoomed into by touching the display screen in a proximity of the second portion using the touch input device while retaining a zoomed in first portion and an original zoom size of a second remaining portion of the of the first remaining portion, the original zoom size of the first and the second remaining portions being the same.

Abstract: A backlight driving circuit for a display apparatus includes a receiver, a signal modulation detector and a driver. The receiver receives a clock signal and a brightness data signal by a serial transmission and in response to an enable signal. The brightness data signal is synchronized with the clock signal and includes brightness information. The signal modulation detector detects a modulation of the brightness data signal, based on at least one of the clock signal and the enable signal, and outputs a control signal based on a detected result thereof. The driver receives the brightness data signal, in synchronization with the clock signal, selects one of the brightness data signal and a predetermined reference brightness data signal in response to the control signal, generates a driving voltage using the selected brightness data signal, and provides the driving voltage to the backlight unit to control the brightness of the backlight unit.

Abstract: A display device includes first and second scanning lines, first and second signal lines, first to fourth thin-film transistors, and first to third pixel electrodes. The first and second signal lines are arranged to intersect with the first and second scanning lines. The first thin-film transistor is connected to the second scanning line and the first signal line. The first pixel electrode is connected to the first thin-film transistor. The second thin-film transistor is connected to the first scanning line and the first pixel electrode. The second pixel electrode is connected to the second thin-film transistor. The third thin-film transistor is connected to the first scanning line and the second pixel electrode. The third pixel electrode is connected to the third thin-film transistor. The fourth thin-film transistor is connected to the second scanning line, the third pixel electrode, and the second signal line.

Abstract: A pixel structure is provided. The pixel structure includes a first pixel unit, a second pixel unit and a discharge unit. The first pixel unit includes a first active device and a first pixel electrode. The second pixel unit includes a second active device and a second pixel electrode. Gates of the first active device and the second active device are electrically connected to a scan line. Drains of the first active device and the second active device are electrically connected to a data line. The first pixel electrode is electrically connected to a source of the first active device. The second pixel electrode is electrically connected to a source of the second active device. The discharge unit is configured to set that a voltage of the second pixel electrode is smaller than a threshold voltage according to a driving signal received by a driving line.