Abstract: Disclosed is a method of RGBW compensation based on color aberrations of white subpixel and an apparatus thereof: when aberrations exist between a color coordinate point Ws of white subpixel and a standard white color coordinate point Wd under sRGB, analyzing color coordinates of every subpixel on the RGBW panel, and then dividing a triangle with vertices points Rs, Gs and Bs into three triangle regions based on Ws as the center point; based on ranges of the three triangle regions, a triangle region where Wd is located is confirmed; a first data is calibrated by performing compensating the white subpixel corresponding by the center point Ws via a predetermined normalized proportion through two subpixels corresponding to the other two points within the triangle region surrounding and locating Wd. Through the aforementioned manner, the present invention is capable of calibrating aberrations of white subpixels in order to normalize images of RGBW panels.

Abstract: The present disclosure provides for image processing apparatus for generating static image data and corresponding Spatial Coordinates as an infrastructure for receiving media input. The media input will generally be related to the image data corresponding with selected Spatial Coordinates. Image data may specifically relate to a physical memory book converted to static image data.

Abstract: A system and method for graphical representation of spatial data. A disclosed video display system is capable of presenting a layout of graphics objects as part of a displayed image. The system provides in the displayed image i) a first graphical representation in a first display area of a display and ii) a diagrammatic representation in a second display area. The diagrammatic representation features superimposed graphical elements that are dependent on the first graphical representation. The video display system can provide, for example, a pie chart as the first graphical representation and a map of a geographic area as the diagrammatic representation. The pie chart graphically represents, for example, a breakdown of members by organization, wherein each slice in the pie chart corresponds to a different organization. Superimposed on the map are elements of a bar chart, which is another example of a graphical representation.

Abstract: A method of dynamically generating a graphic includes receiving, at a vector graphics engine loaded on a server system, graphic template input; receiving, at the vector graphics engine loaded on the server system, data template input; and generating, at the server system, code in a standard format representative of a vector graphic. The generating includes identifying a special tag associated with the vector graphics engine, converting code associated with this tag from a first format associated with the vector graphics engine to a second standardized format, and binding data content based on the received data template input to graphic content based on the received graphic template input.

Abstract: Novel tools and techniques might provide for implementing user interface validation or diagnostics, and, in particular embodiments, for implementing automated forensic artifact reconstruction and replay of captured and recorded display interface streams. In some embodiments, a computing system might retrieve stream data from a database, the stream data having been captured and recorded by a data stream recording system as display data is being sent from an embedded processor of a graphical user interface (“GUI”) system to a display device, without disturbing the display data being sent. The computing system subsequently parses pixel data from the display data, formats the parsed pixel data, reconstructs one or more display screen images based at least in part on the formatted pixel data, then compares each pixel of each screen image or frame of the reconstructed display screen images with each pixel of a model screen image of each corresponding screen image.

Abstract: An apparatus for processing an animation includes an object storage unit configured to store objects included in animation content and an animation control unit configured to adjust at least one of a number of objects to be rendered in one frame among the objects included in the animation content and preset target frames per second (FPS) by calculating a rendering time of the objects to be rendered in one frame and comparing the rendering time with the target FPS.

Abstract: An electronic device includes a processor configured to control an operation of the electronic device, a memory device coupled to the processor, where the memory device is configured to operate as a main memory of the electronic device, and a display device coupled to the processor, where the display device is configured to display an original image based on first image data for the original image at a first frame, and to display a bioeffect image based on second image data for the bioeffect image at a second frame.

Abstract: A system and method for selecting and highlighting elements of a graphical representation of data. A disclosed video display system is capable of providing, as part of a displayed image, i) a collection of data points in a first display area of a display and ii) a first graphical representation in a second display area, wherein the graphical elements in the first graphical representation are dependent on the collection of data points. The video display system can provide, for example, a scatter plot as the collection of data points and a pie chart as the first graphical representation, and can superimpose a selection window on the scatter plot, in order to enable a user to specify or select a subset of the data points. The pie chart graphically represents, for example, a breakdown of members by organization, wherein each slice in the pie chart corresponds to a different organization.

Abstract: Embodiments of the present invention provide systems, methods, and computer storage media directed at decomposing a graphic design into constituent parts. In embodiments, a decomposition module is configured to partition pixels of a graphic design image into superpixels. This partitioning can be based on a color analysis of individual pixels of the graphic design image. Once partitioned into superpixels, the decomposition module may group the superpixels into components such that each component includes superpixels that are within a level of similarity from one another. The decomposition module can then categorize one or more of the components as textual elements of the graphic design based on text identification features of the components. Other embodiments may be described and/or claimed herein.

Abstract: A method is provided for modifying an image. The method comprises displaying an image, the image comprising a portion of an object; and determining if an edge of the object is in a location within the portion. The method further comprises detecting movement, in a member direction, of an operating member with respect to the edge. The method still further comprises moving, if the edge is not in the location, the object in an object direction corresponding to the detected movement; and modifying, if the edge is in the location, the image in response to the detected movement, the modified image comprising the edge in the location.

Abstract: A system for rendering a merged virtual 3D augmented replica of a 3D product image and a 3D model image of a body part. A 3D modeling engine transforms an acquired 2D image of a body part into a 3D augmented replica thereof. A GUI enables the merging, displaying and manipulating of the 3D product image and the 3D augmented replica of a body part.

Abstract: According to one aspect of an embodiment, an information display device includes a display unit that displays first content in a display region. The information display device includes a detection unit configured to detect a physical state of a terminal device. The information display device includes a display control unit configured to direct the display unit to display second new content in the display region while changing a display mode of the first content, on the basis of the detection result of the detection unit.

Abstract: A display device according to the present invention includes an input unit that receives an operation instruction, a display unit that displays a screen, a changer that changes a displayed direction of the screen displayed by the display unit, and a stopper that stops the displayed direction of the screen from being changed by the changer if the input unit has received an operation instruction about information on the screen displayed by the display unit.

Abstract: Example implementations relate to rendering a visualization of a data set. In example implementations, a device causes a first plurality of geometric shapes to be generated. The first plurality of geometric shapes may correspond to a first plurality of topics at a first hierarchical level of the data set. The device may cause the first plurality of shapes to be arranged in a tessellation. Sizes of the first plurality of geometric shapes in the tessellation may be based on a ranking or importance of the corresponding first plurality of topics.

Abstract: A method is provided for modifying an image. The method comprises displaying an image, the image comprising a portion of an object; and determining if an edge of the object is in a location within the portion. The method further comprises detecting movement, in a member direction, of an operating member with respect to the edge. The method still further comprises moving, if the edge is not in the location, the object in an object direction corresponding to the detected movement; and modifying, if the edge is in the location, the image in response to the detected movement, the modified image comprising the edge in the location.

Abstract: A method is described for generating procedural textures for a computer having a unified CPU/GPU memory architecture, to generate textures for contents that are managed by a graphics card (GPU), and including the steps of: receiving the data of a graph consisting of a plurality of filters and sequentially traversing said graph such as to allow, for each filter traversed, the steps of: identifying the processor preselected for executing this filter; receiving the instructions for the preselected version of the filter; receiving parameters of the current filter; receiving the buffer addresses of the current filter; applying the values provided for the digital-valued filter inputs; executing the filter instructions with the set parameters; storing the intermediate results obtained; and, when all of the filters of the graph have been executed, generating at least one display texture.

Abstract: Image processing apparatus and method. A modeling unit may generate a three-dimensional (3D) model corresponding to an actual object from an input color image and an input depth image corresponding to the input color image. A calculator may perform photon-based rendering with respect to an input virtual object and the 3D model based on input light environment information, and may generate a difference image comprising color distortion information occurring by inserting the virtual object into the 3D model. A rendering unit may generate a result image comprising the virtual object by synthesizing the difference image and the input color image.

Abstract: Methods and systems for generating an interactive rotatable 360-degree presentation of an object are disclosed. The methods and systems obtain data describing the object, where the data includes information about a number of images of the object, as well as additional information about the object. The images are automatically obtained and rearranged into at least one sequence of images substantially evenly distributed around 360 degrees. It is determined whether to add hotspot(s) to image(s), and if hotspot(s) are to be added, the hotspot(s) are automatically added to the image(s). The ordered images of the sequence(s) are then merged into an interactive rotatable 360-degree presentation of the object.

Abstract: Example embodiments relate to providing mobile augmented reality for an enclosed area. In example embodiments, controller device receives a fixed video stream from a fixed camera and a mobile video stream of a current field of view of a mobile user device. The mobile user device comprises a reality augmentation module to project information on the current field of view. Further, the controller device includes a tracking module to identify a position and orientation of a mobile user of the mobile user device based on image processing of the fixed video stream and a fuzzy map module to use a fuzzy map of the enclosed area and the position and orientation of the mobile user to identify items of interest in the current field of view of the mobile user device, where the fuzzy map is generated based on a floor plan of the enclosed area.

Abstract: The present invention discloses a method of RGBW compensation based on color aberrations of white subpixel and an apparatus thereof: when aberrations exist between a color coordinate point Ws of white subpixel and a standard white color coordinate point Wd under sRGB, analyzing color coordinates of every subpixel on the RGBW panel, and then dividing a triangle with vertices points Rs, Gs and Bs into three triangle regions based on Ws as the center point; based on ranges of the three triangle regions, a triangle region where Wd is located is confirmed; a first data is calibrated by performing compensating the white subpixel corresponding by the center point Ws via a predetermined normalized proportion through two subpixels corresponding to the other two points within the triangle region surrounding and locating Wd. Through the aforementioned manner, the present invention is capable of calibrating aberrations of white subpixels in order to normalize images of RGBW panels.