Abstract: A method and an apparatus for mirroring a frame are provided. The method is suitable for a display device having a first storage unit and a second storage unit. In the present method, pixel values of a pixel row of the frame are read from the first storage unit and written into the second storage unit. Then, the pixel values of the pixel row of the frame are read from the second storage unit and written back to the first storage unit. When performing one of foregoing reading and writing steps, the pixel values of the pixel row are read or written in a reverse direction to mirror the pixel row. Finally, foregoing steps are repeated to mirror each pixel row of the frame, so as to mirror the entire frame.

Abstract: A method for mapping an object (28) includes illuminating the object with at least two beams (37, 38) of radiation having different beam characteristics. At least one image of the object is captured under illumination with each of the at least two beams. The at least one image is processed to detect local differences in an intensity of the illumination cast on the object by the at least two beams, and the local differences are analyzed in order to generate a three-dimensional (3D) map of the object.

Abstract: A display state of input data and a setting dialog on a display screen is determined to display the setting dialog at an appropriate position based on a determination result. An information processing system includes a scanner apparatus for inputting data and a PC for displaying input data input by the scanner apparatus on a display screen of a large-sized display. The PC includes a display control portion for displaying the input data and the setting dialog for setting document reading conditions relating to the input data on the display screen, and a display state determining portion for determining a display state of the input data and the setting dialog. The display control portion controls a display position of the setting dialog based on a determination result by the display state determining portion.

Abstract: There are provided a first image enlarging means (2A) for enlarging the input image (Din) and outputting a first enlarged image (D2A); a high-frequency component image generating means (1) for extracting a high-frequency component of the input image (Din) and generating a first high-frequency component image (D1); a second image enlarging means (2B) for enlarging the first high-frequency component image (D1) and outputting a second enlarged image (D2B); a high-frequency component image processing means (3) for processing the second enlarged image (D2B) and generating a second high-frequency component image (D3); and a means (4) for adding the first enlarged image (D2A) and the second high-frequency component image (D3) and outputting the result. This provides the enlarged image with adequate high-frequency components, and a sense of resolution of the enlarged image can be obtained.

Abstract: A system and method for processing video data are disclosed. In one aspect, a method includes generating halftone data for a first video frame and generating halftone data for a second video frame. The method further includes, to reduce at least one visual artifact, selectively copying the halftone data for the first video frame into the halftone data for the second video frame, the selectively copying being based upon a comparison between an adaptive threshold and the change resulting due to the copying of the data, in the human visual system model-based perceptual error of the halftone data for the second video frame.

Abstract: An apparatus and methods for scheduling and executing commands issued by a first processor, such as a CPU, on a second processor, such as a GPU, are disclosed. In one embodiment, a method of executing processes on a graphics processing unit (GPU) includes monitoring one or more buffers in a memory, selecting a first subset from the one or more buffers for execution on the GPU based on a workload profile of the GPU, and executing the first subset on the GPU. The GPU may also receive a priority ordering of the one or more buffers, where the selecting is further based on the received priority ordering. By performing prioritization and scheduling of commands in the GPU, system performance is enhanced.

Abstract: A system and method for processing video data are disclosed. In one aspect, a method includes generating halftone data for a first video frame and generating halftone data for a second video frame. The method further includes, to reduce at least one visual artifact, selectively copying the halftone data for the first video frame into the halftone data for the second video frame, the selective copying being based upon a comparison between a predetermined fixed threshold and the difference in the human visual system model-based perceptual error of the originally generated halftone data for the second video frame and the human visual system model-based perceptual error of the halftone data for the second video frame after the copying is done.

Abstract: Various methods, techniques or modules are provided to allow for the automated analysis of the 3-D representation of the upper front torso (i) to recognize 3-D anatomical features, (ii) to orient the subject with reference to their anatomy or a display, (iii) to determine dimensional analysis including direct point-to-point lines, 3-D surface lines, and volume values, (iv) to simulate the outcome with the addition of breast implants including breast and nipple positioning, (v) to assist in the selection of the breast implants, and/or (vi) to assist in the planning of breast surgery. The automated analysis is based on the analysis of changes in a 3-D contour map of the upper torso, orientation analysis of 3-D features and planes, color analysis of 3-D features, and/or dimensional analysis of 3-D features and positions of the upper torso.

Abstract: A method of managing multiple contexts for a single mode display includes receiving a plurality of tasks from one or more applications and determining respective contexts for each task, each context having a range of memory addresses. The method also includes selecting one context for output to the single mode display and loading the selected context into a graphics processor for the display.

Abstract: At least one embodiment of the present invention relates to a method and an apparatus for visualizing 3D image data from tomographic imaging modalities using a rendering technique in which every pixel is calculated by integrating or summing along respectively one ray through a volume surrounded by the 3D image data. In the method, a peeling function is additionally introduced into the integration or summation, by which, in the integration or summation, the 3D image data on the respective ray only contributes with its full data value to reducing the optical transparency beyond a prescribable value of an optical skin depth. The peeling function is selected such that, in a transition region before the prescribable value of the optical skin depth is reached, the 3D image data on the ray still contributes to reducing the optical transparency with a fraction of its full data value such that there is a smooth profile, generated by the peeling function, when an outer layer is peeled off.

Abstract: The object is to smoothly move the position of the viewing point of the virtual camera with existence of an object between the position of the viewing point of the virtual camera and the position of the subject avoided. A camera peripheral area that has a viewing point as its center and has the radius of R, a subject peripheral area that has a subject toward which a viewing axis of the virtual camera is aligned as its center and has the radius of r, and a camera-to-subject area formed by a circular truncated cone area therebetween are set as a camera collision in which an obstacle cannot exist. When an obstacle exists in the camera collision, the position of the viewing point is adjusted. The radius R and the radius r are adjusted each time the reference distance D is changed.

Abstract: An image forming apparatus is connected to an information processing apparatus via a network. The image forming apparatus transmits setting information contained in a setting screen to the information processing apparatus and receives customized setting information generated by the information processing apparatus based on the setting information, whereby the setting screen is customized by the customized setting information.

Abstract: A computer-implemented method includes identifying a intersection point on a first graphical object from an incident ray. The incident ray originates from an image viewpoint. The method also includes directing a compositing ray from the image viewpoint to the intersection point. Further, the method includes determining color information associated with the intersection point from color information provided by the compositing ray.

Abstract: An image display processing apparatus includes an input-shape detector detecting a shape of a trajectory of a line drawn in the monitor screen; a center-point determiner determining, in a case where the shape of the trajectory of the line is formed of a circular line and an offshoot line extending from the circular line, a center point of a graphic object formed of the circular line; a ratio calculator calculating a distance ratio between a distance from the center point of the graphic object to the circular line and a distance from the center point of the graphic object to an end point of the offshoot line; and an enlargement-ratio changer changing the enlargement ratio of the image on the basis of the distance ratio.

Abstract: An apparatus and method for simplifying 3-Dimensional (3D) mesh data are disclosed. The method includes measuring discrete curvature at each point of received 3D mesh data, calculating an error based on distance-curvature error metrics including the discrete curvature, first sorting a low curvature one of the calculated error values in a heap in ascending order, selecting a minimum error among the calculated errors, determining if the minimum error is less than a threshold, contracting an edge if the selected minimum error is greater than the threshold, and recalculating an error of a surface neighboring to a surface on which the contracted edge belongs and re-sorting the calculated error values.

Abstract: A method and apparatus for enhancing control of an Avatar in a three dimensional computer-generated virtual environment is provided. In one embodiment, a user can control one or more controllable aspects of an Avatar directly via interacting with a touch sensitive user input device such as a touchpad or touch sensitive screen. Interaction with the touch sensitive user input device enables more precise control and more direct control to be implemented over the action of the Avatar in the virtual environment. Multiple aspects of the Avatar may be controlled, such as the Avatar's forward motion, orientation, arm movements, and grasping of objects.

Abstract: A display interface for on screen display is disclosed. The display interface comprises a pattern and a layer with black and transparent background. When an on screen display (OSD) is activated, the pattern corresponding to the OSD is displayed, the black and transparent background is rendered, and radiative transition effect is implemented to the pattern.

Abstract: Various exemplary embodiments provide methods of controlling frame memory, memory control circuits, and image processing apparatuses including the memory control circuits. Data representing values of pixels constituting each of a plurality of frames are received in an order of the frames, and data representing values of pixels constituting a previous frame are read from the frame memory and data representing values of pixels constituting a next frame are written to the frame memory. By reading first data representing values of a portion of the pixels constituting the previous frame from the frame memory before receiving of data representing values of pixels constituting the next frame starts, a delay time before starting to output data representing values of pixels of the previous frame can be shortened.

Abstract: A screen display control device includes: a compression unit which compresses input image data in a line unit; a rewritable image memory to which the compressed data compressed in the line unit by the compression unit is written in non-synchronization with a reading process; a decompression unit which decompresses the compressed data periodically read from the image memory in synchronization with screen display to restore original image data; a display unit which displays an image of the image data decompressed and restored by the decompression unit; a buffer memory which temporarily maintains compressed one-line data compressed by the compression unit; and a writing/reading control unit which controls the processes of writing and reading the compressed data to and from the image memory and processes of writing and reading the image data to and from the buffer memory.

Abstract: A screen display control device includes: a compression unit which compresses input image data in a line unit; a rewritable image memory to which the compressed data compressed in the line unit by the compression unit is written in non-synchronization with a reading process; a decompression unit which decompresses the compressed data periodically read from the image memory in synchronization with screen display to restore original image data; a display unit which displays an image of the image data decompressed and restored by the decompression unit; a buffer memory which temporarily maintains one-line data of the image data; and a writing/reading control unit which controls the process of writing the compressed data to the image memory and the processes of writing and reading the image data to and from the buffer memory.