Abstract: Various methods, systems and storage devices are provided for tagging chart elements and for optimizing chart visualizations. Tagged chart elements and their corresponding display attributes are preserved during chart visualization optimizations that result in a modification of untagged chart elements.

Abstract: A handwritten music sign recognition device (10) has: a touch information obtaining part (21) which obtains, as position information, a position of an input means on a screen every time the input means moves, from when the input means touches the screen until when the input means is moved away therefrom; a vector information creation part (22) which creates attributes of a vector indicating a trace of movement of the input means as vector information based on the position information; and a stroke characteristic amount derivation part (23) which derives a characteristic amount of a stroke based on the vector information included in the stroke information.

Abstract: Methods and devices for scaling virtual movement may include receiving from a positional tracking system attached to the computer device, a current physical location of a body part of a user being tracked for providing an input to a virtual reality simulation. The methods and devices may include determining a start position based at least upon the current physical location of the user for scaling virtual movements in the virtual reality simulation corresponding to received physical movements of the user. The methods and devices may include determining a scale factor to apply to the physical movements from the start position to generate scaled virtual movements of the physical movements. The methods and devices may include transmitting the scaled virtual movement for presentation on a display.

Abstract: A system include an light emitter to generate a primary light, a filter to filter the primary light to substantially remove a spectrum energy in a wavelength band, a display device to present visual content using the filtered primary light, and a processing device to receive a visual content, calculate, in view of the filtered primary light, a metamer of the visual content, and provide, to the display device, the metamer of the visual content to display in view of the filtered light.

Abstract: Systems and techniques are provided for switching between different modes of a media content item. A media content item may include a movie that has different modes, such as a cinematic mode and an interactive mode. For example, a movie may be presented in a cinematic mode that does not allow certain user interactions with the movie. The movie may be switched to an interactive mode during any point of the movie, allowing a viewer to interact with various aspects of the movie. The movie may be displayed using different formats and resolutions depending on which mode the movie is being presented.

Abstract: According to one embodiment, a signal supply circuit used for a display device includes a plurality of subpixels each including a memory. The signal supply circuit includes a first mode. The first mode receives first video data in a unit of n bits corresponding to the subpixels from outside, and supplies digital data for the subpixels in a unit of m bits less than n bits to the subpixels based on the first video data.

Abstract: Responsive to receiving an indication of a geographical area, one or more constituent areas associated with the geographical area are identified. Boundary data corresponding to the constituent areas is accessed. The boundary data for each constituent area comprises a plurality of geographical location points defining line segments that define the boundary of the corresponding constituent area. Unique portions of line segments are identified. A unique portion of a line segment is a portion of a line segment defined in the boundary data of one and only one of the constituent areas. The geographical area boundary layer is defined. The geographical boundary layer comprises a set of line segments consisting of the unique portions of line segments. A geographical map is provided for display via a user interface. The geographical map comprises a plurality of layers. The plurality of layers comprise one or more map layer sand the geographical area boundary layer.

Abstract: An image capture device located within an eyebox of a vehicle obtains an image of a virtual image presented on a display of the vehicle. The display includes a conformal display having real-world features associated with the virtual symbology of the virtual image. The image of the virtual image is used to compare pixels of the features to determine whether an error is associated with the presentation of the virtual image on the display. A correction factor may be determined based on the comparison. The correction factor is used to reconfigure the presentation and more accurately display the virtual symbology.

Abstract: A method for processing virtual reality (VR) content by a content providing device includes identifying cartesian coordinates of a first position on the VR content, estimating a movement of a user of the content providing device, identifying cartesian coordinates of a second position by applying a matrix representing the estimated movement of the user to the cartesian coordinates of the first position, converting the cartesian coordinates of the second position into spherical coordinates of the second position, and providing an area corresponding to the spherical coordinates of the second position to the user.

Abstract: Images may be automatically annotated with place identifiers based on textual metadata associated with the images. The quality of these place identifiers may be scored based on a number of different factors. For example, these annotations may also include confidence and topicality values indicative of the relationships between the place identifier and the text as well as topics of the text of the textual metadata. Images that also have additional location information that includes GPS coordinates or a location specified by a user, may be used to evaluate the quality of a given place identifier, combination of confidence and topicality values, and the overall annotation system. These valuations may, in turn, be used to score the quality of such automatic annotations of other images that do not have such additional location information.

Abstract: In one embodiment of the present invention a driver configures a graphics pipeline implemented in a cache tiling architecture to perform dynamically-defined multi-pass rendering sequences. In operation, based on sequence-specific configuration data, the driver determines an optimized tile size and, for each pixel in each pass, the set of pixels in each previous pass that influence the processing of the pixel. The driver then configures the graphics pipeline to perform per-tile rendering operations in a region that is translated by a pass-specific offset backward—vertically and/or horizontally—along a tiled caching traversal line. Notably, the offset ensures that the required pixel data from previous passes is available. The driver further configures the graphics pipeline to store the rendered data in cache lines.

Abstract: A display apparatus is provided to display a plurality of different images with different characteristics of an object on a single screen while gradually and mutually converting the color images and an image display method using the same. The display apparatus includes a memory to store a plurality of color images with different characteristics of an object and a display unit to display a second color image while gradually converting a first color image displayed on the display unit into the second color image, the second color image having a different characteristic from that of the first color image.

Abstract: An apparatus and method are described for executing workloads without host intervention. For example, one embodiment of an apparatus comprises: a host processor; and a graphics processor unit (GPU) to execute a hierarchical workload responsive to one or more commands issued by the host processor, the hierarchical workload comprising a parent workload and a plurality of child workloads interconnected in a logical graph structure; and a scheduler kernel implemented by the GPU to schedule execution of the plurality of child workloads without host intervention, the scheduler kernel to evaluate conditions required for execution of the child workloads and determine an order in which to execute the child workloads on the GPU based on the evaluated conditions; the GPU to execute the child workloads in the order determined by the scheduler kernel and to provide results of parent and child workloads to the host processor following execution of all of the child workloads.

Abstract: Methods, systems, computer-readable media, and apparatuses for generating an Augmented Reality (AR) object are presented. The method may include capturing an image of one or more target objects, wherein the one or more target objects are positioned on a pre-defined background. The method may also include segmenting the image into one or more areas corresponding to the one or more target objects and one or more areas corresponding to the pre-defined background. The method may additionally include converting the one or more areas corresponding to the one or more target objects to a digital image. The method may further include generating one or more AR objects corresponding to the one or more target objects, based at least in part on the digital image.

Abstract: A processing unit, method, and medium for decompressing or generating textures within a graphics processing unit (GPU). The textures are compressed with a variable-rate compression scheme such as JPEG. The compressed textures are retrieved from system memory and transferred to local cache memory on the GPU without first being decompressed. A table is utilized by the cache to locate individual blocks within the compressed texture. A decompressing shader processor receives compressed blocks and then performs on-the-fly decompression of the blocks. The decompressed blocks are then processed as usual by a texture consuming shader processor of the GPU.

Abstract: A head mounted display is provided that includes a main body, a sensor, and a door. The door of the head mounted display includes a computing device or, in some cases, an embedded screen. The computing device includes a camera and a display interface. The sensor and the camera of the mobile computing device are rigidly positioned with fixed displacements.

Abstract: A display system has a first tablet terminal, a second tablet terminal, and a projector capable of communicating with the first tablet terminal and the second tablet terminal via the communication network. The projector requests transmission of first data to the first tablet terminal, and at the same time requests transmission of second data to the second tablet terminal. The first tablet terminal and the second tablet terminal transmit the first data and the second data to the projector in accordance with the request from the projector at respective timings different from each other via a communication network.

Abstract: A waveguide apparatus includes a planar waveguide and at least one optical diffraction element (DOE) that provides a plurality of optical paths between an exterior and interior of the planar waveguide. A phase profile of the DOE may combine a linear diffraction grating with a circular lens, to shape a wave front and produce beams with desired focus. Waveguide apparatus may be assembled to create multiple focal planes. The DOE may have a low diffraction efficiency, and planar waveguides may be transparent when viewed normally, allowing passage of light from an ambient environment (e.g., real world) useful in AR systems. Light may be returned for temporally sequentially passes through the planar waveguide. The DOE(s) may be fixed or may have dynamically adjustable characteristics. An optical coupler system may couple images to the waveguide apparatus from a projector, for instance a biaxially scanning cantilevered optical fiber tip.

Abstract: Technologies are disclosed for precomputation of reduced deformable models. In such precomputation, a Krylov subspace iteration may be used to construct a series of inertia modes for an input mesh. The inertia modes may be condensed into a mode matrix. A set of cubature points may be sampled from the input mesh, and cubature weights of the set of cubature points may be calculated for each of the inertia modes in the mode matrix. A training dataset may be generated by iteratively adding training samples to the training dataset until a training error metric converges, wherein each training sample is generated from an inertia mode in the mode matrix and corresponding cubature weights. The reduced deformable model may be generated, including inertia modes in the training dataset and corresponding cubature weights.

Abstract: A user can dynamically invoke and control the display of secondary data visualizations based on a selected element of a primary data visualization. Previews of the secondary data visualizations are presented as the user interacts with the primary visualization. In response to user input, previews can be dynamically expanded, allowing a user to dynamically “drill down” into selected elements of the primary data visualization. Any suitable input mechanism can be used, including for example, a gesture such as a two-finger spreading motion to invoke previews of available secondary visualizations, wherein the axis defined by two points of contact determines which of the displayed previews of secondary visualizations is highlighted and/or expanded. In various embodiments, a hierarchy of visualizations can be established, and the user can navigate among two or more levels of visualizations in the same interactive manner.