Abstract: The disclosure discloses a method for displaying a point of information of a map, a device, and a storage medium. The detailed implementation includes: obtaining a display position of a target point of information (POI) to be displayed; on a target electronic map displayed at a preset scale, determining a position relationship between the display position of the target POI and an influence region of each POI located in the target electronic map; and displaying information of the target POI at the display position of the target electronic map in response to the display position of the target POI being located outside the influence region of each POI in the target electronic map. With the technical solution of the disclosure, when the POI is displayed, the display efficiency and the intelligence degree are improved, the POI overlapping with its surrounding POIs is improved, and the overall display effect is ensured.

Abstract: A client device receives a first map tile, a second map tile, and map terrain data from a mapping system, the first and second map tiles together including map feature having a geometric base with a height value, the geometric base represented by a set of vertices split across the first and second map tiles. The client device identifies edges of the geometric base that intersect a tile border between the first and second map tiles. The client device determines a set of sample points based on the identified edges and determines a particular sample elevation value corresponding to a sample point in the set. The client device renders the map feature based on the particular sample elevation value and displays the rendering of the map feature.

Abstract: The present disclosure relates to methods and devices for graphics processing including an apparatus. In some aspects, the apparatus may determine a first input pixel area of an input image and a second input pixel area of the input image. The apparatus may also convert at least one of one or more first input pixels of a plurality of first input pixels or one or more second input pixels of a plurality of second input pixels. Additionally, the apparatus may store, in at least one cache or memory, the converted at least one of the one or more first input pixels or the one or more second input pixels. The apparatus may also configure at least one of one or more first output pixels of a plurality of first output pixels or one or more second output pixels of a plurality of second output pixels.

Abstract: Embodiments involve selective updating and suspension of updates to augmented reality (AR) content.

Abstract: This technology relates to rasterizing and compositing vector graphics in parallel on a data-parallel computing device. For example, vector data of the vector graphics, may be loaded into local memory accessible by the one or more parallel processors. The vector data may include one or more paths comprised of one or more path segments of the vector graphics. The one or more parallel processors may rasterize the one or more path segments into respective rasters and assign each of the rasters into groups based on pixel coordinates of the respective rasters. Each group may have an associated key and the rasters within each group represent a portion of the same vector graphic. The rasters may be placed onto subpixels according to their respective pixel coordinates and rendered onto a display by the one or more parallel processors.

Abstract: An artificial intelligence apparatus for calibrating an output position of a display panel according to an embodiment includes a camera configured to capture an image displayed by the display panel; and a processor configured to: transmit a signal for outputting a position reference image to the display panel, receive, via the camera, a captured image for the display panel, calculate an output position offset for the display panel in a predetermined unit based on the position reference image and the captured image, determine an output position calibration value for the display panel using the calculated output position offset, and transmit the determined output position calibration value to the display panel.

Abstract: An example method and system for display of out-of-window status indicators in a virtual shelf of a diagram window. A diagram framework displays a first portion of a diagram within a diagram window of a display device. The diagram comprises a set of shapes and a set of connectors representing a corresponding set of relationships between a set of objects. The framework detects that a first shape of the set of shapes at a first position of the first shape and a first status indicator associated with the first shape at a first position of the first status indicator are at least partially outside a first visible portion of the diagram within the diagram window. The diagram framework determines a second position of the first status indicator within the diagram window. The first status indicator at the second position of the first status indicator is displayed within the diagram window.

Abstract: A sensor simulation system may generate sensor data for use in simulations by rendering two-dimensional views of a three-dimensional simulated environment. In various examples, the sensor simulation system uses sensor dependency data to determine specific views to be re-rendered at different times during the simulation. The sensor simulation system also may generate unified views with multi-sensor data at each region (e.g., pixel) of the two-dimensional view for consumption by different sensor types. A hybrid technique may be used in some implementations in which rasterization is used to generate a view, after which ray tracing is used to align the view with a particular sensor. Spatial and temporal upsampling techniques also may be used, including depth-aware and velocity-aware analyses for simulated objects, to improve view resolution and reduce the frequency of re-rendering views.

Abstract: A display device includes an augmented reality display part that displays a virtual robot that operates in accordance with a predetermined program together with objects in real space, a position detection part that detects the position of a work target in real space by measuring a distance to the work target from the augmented reality display part, and a control part that causes the virtual robot displayed on the augmented reality display part to operate based on the position of the work target detected by the position detection part to perform predetermined work on the work target.

Abstract: An information processing apparatus includes a first acquisition unit configured to acquire a position and orientation of a display apparatus capable of displaying one or more virtual objects, a second acquisition unit configured to acquire a position and orientation of a target virtual object out of the one or more virtual objects, and a control unit configured to determine a method of displaying the target virtual object on the display apparatus based on the position and orientation of the display apparatus and the position and orientation of the target virtual object.

Abstract: Apparatus, methods, and program products for preventing data snipping are disclosed. One apparatus includes a processor and a memory that stores code executable by the processor. The code is executable by the processor to partition an electronic image into a plurality of graphics frames for display on a display device, wherein each separate graphics frame in the plurality of graphics frames includes a different portion of the electronic image, and transmit each separate graphics frame of the plurality of graphics frames to the display device, wherein each separate graphics frame in the plurality of graphics frames is separately transmitted to the display device for display thereon within each display cycle. Methods and computer program products that perform the operations and/or functions of the apparatus are also disclosed.

Abstract: Examples of the present subject matter provide techniques for calculating amplitude fidelity (AF) for a variety of grid resolutions using a single TFM image of a specified flaw. Thus, the grid resolution may be set so that it yields a desired AF using a calculation process without performing a blind iterative process. Moreover, examples of the present subject matter may measure AF in more than one axis, improving accuracy.

Abstract: Methods, apparatuses, and non-transitory machine-readable media for image location based on a perceived interest and display position. Apparatuses can include a display, a memory device, and a controller. an example controller can assign a perceived interest and sort images based in part on the perceived interest. In another example, a method can include assigning, by a controller coupled to a memory device, a perceived interest to an image of a plurality of images, wherein the perceived interest is assigned based in part on a change in position of a display coupled to the memory device while the image is viewable on the display, selecting the image from an initial viewing location on the display responsive to the assigned perceived interest, and transferring the image to a different viewing location, wherein the initial viewing location and the different viewing location are visible on the display.

Abstract: A data processing apparatus includes rendering circuitry to render an image frame by plural successive rendering stages, each rendering stage having a respective initial rendering stage time allocation, prediction circuitry to predict, in dependence upon rendering of at least one rendering stage of the plural successive rendering stages of a given image frame by the rendering circuitry, whether a total time period for rendering the given image frame by the rendering circuitry will exceed an associated image frame rendering time allocation for the given image frame, and allocation circuitry to vary the respective initial rendering stage time allocation for one or more rendering stages which are not yet completed in respect of the given image frame responsive to the prediction circuitry, so as to shorten the total time period for rendering the given image frame by the rendering circuitry.

Abstract: A request to access a display unit may be received via an interface. The interface may comprise a line display interface for a point of sale system. A glyph to be displayed by the display unit may be received via the interface. The glyph may be converted to an image for display by the display unit and sent to the display unit.

Abstract: An input information acquiring section accepts a user's operation. A texture region acquiring section acquires a region of a display image to be presented by use of a texture. A velocity acquiring section acquires for each pixel a movement velocity vector of the texture on a plane of the display image. A texture referencing section adjusts a reference range in an axial direction of the velocity vector in keeping with a magnitude of the movement velocity, before sampling texel values. A pixel value determining section determines a pixel value on the basis of the texel values. An output section outputs the display image.

Abstract: An application issues a display request to display a content in an area set on a display device. In response to determining that a different content is displayed in the area, an arbitration is executed to allocate the content to the area to satisfy a rule-based arbitration using a rule definition including (i) an arbitration policy defining a basic arbitration when allocating the content to the area on the display device and (ii) a constraint expression describing a property to be exceptionally satisfied.

Abstract: A system configured to determine an extent to which an object in a computer-generated scene is visible from a virtual camera, including a rendering engine comprising a depth buffer and arranged to render the computer-generated scene, and a viewability testing module. The viewability testing module is configured to: generate a plurality of points distributed across a surface of the object; determine a depth map value for each point within a field of view of the virtual camera; determine whether each such point is visible from the perspective of the virtual camera based on a comparison between the determined depth map value for the point and a corresponding one or more of the depth map values stored in the depth buffer; and determine the extent to which the object is visible in dependence on which of the plurality of points are determined to be visible.

Abstract: A computer implemented method comprises receiving a mesh representing a 3D object, the mesh comprising a plurality of 2D shapes, receiving a strand feature comprising a plurality of virtual strands, and associating each strand of the plurality of virtual strands with a 2D shape of the mesh.

Abstract: A simulation system includes a display device and a selection unit. The display device shows an image on an exhibit related to a building. The selection unit selects content of the image shown on the exhibit. The selection unit includes a display section that displays information corresponding to the image.