Abstract: Relightable free-viewpoint rendering allows a novel view of a scene to be rendered and relit based on multiple views of the scene from multiple camera viewpoints. Image values from the multiple camera viewpoints can be separated into diffuse image components and specular image components, such that an intrinsic color component of a relightable texture can be determined for a specular scene, by using the separated diffuse image components. Furthermore, surface normals of geometry in the scene can be refined by constructing a height map based on a conservative component of an initial surface normal field and then determining the refined surface normals based on the constructed height map.

Abstract: A support and complement device etc., are provided, which appropriately generates the character's motion for content introduction in a simple manner. The user inputs a command to an input device, which specifies the character's motion used for content introduction. The support and complement device complements the command input operation. The content includes material data and language data. The language data includes voice data to be emitted by the character. A unit for recognizing emotions analyzes the material data and the language data, and deduces the emotion pattern to be expressed by the character. A unit for choosing commands determines the character's motion using the deduced emotion pattern, command, and voice data, and generates a motion command. A unit for reading out animation movies for user's check instructs a readout device to display a proposed animation movie generated by the unit for choosing commands, thereby allowing the user to review it.

Abstract: A method of displaying a medical image includes displaying a first image that is generated by rendering volume data of an object in a first direction, displaying on the first image a viewer tool for generating a second image, wherein the viewer tool indicates a section of the object, generating the second image by rendering sub-volume data included in the volume data in a second direction which is different from the first direction and indicated by the viewer tool, and displaying at least a part of the second image.

Abstract: Relightable free-viewpoint rendering allows a novel view of a scene to be rendered and relit based on multiple views of the scene from multiple camera viewpoints. Image values from the multiple camera viewpoints can be separated into diffuse image components and specular image components, such that an intrinsic color component of a relightable texture can be determined for a specular scene, by using the separated diffuse image components. Furthermore, surface normals of geometry in the scene can be refined by constructing a height map based on a conservative component of an initial surface normal field and then determining the refined surface normals based on the constructed height map.

Abstract: Provided is a method for compensating for a defective pixel of a display. The method includes identifying at least one of a plurality of pixels of a display as a defective pixel and compensating for a function of the defective pixel by using at least one pixel from a first pixel group located in a first partial region corresponding to the defective pixel and a second pixel group located in a second partial region located adjacent to the first partial region among a plurality of partial regions, each partial region comprising some adjacent pixels among the plurality of pixels.

Abstract: In one general aspect, a method can include accessing, from a database, a plurality of user-specified planar indicators within a real-world space where the plurality of user-specified planar indicators can be associated with a plurality of images of an object and identifying planar locations for the plurality of images within the real-world space. The method can include accessing, from the database, a plurality of model planar indicators within a model space where the plurality of model planar indicators can be associated, during modeling of the object as a three-dimensional model within the model space, with a plurality of locations of a plurality of image capture devices associated with the plurality of images. The method can also include aligning, at a computing device, at least a portion of the plurality of model planar indicators with at least a portion of the plurality of user-specified planar indicators.

Abstract: There is provided an information processing apparatus including a control section which performs control of presenting, in association with each other, actual energy consumption representing an amount of energy consumed by a device in a case where a user performs any one of user actions, the user actions each being capable of being carried out by the user, and estimated energy consumption representing an amount of energy consumed by the device in a case where the user does not perform the user action.

Abstract: Limitations of conventional dimensional printing techniques are addressed to provide features and flexibility not presently available, including extracting images selectively from a Postscript® or PDF file and thus enable texturing of individual images within a page; constructing the texture automatically directly from the image using image processing techniques; visualizing the texture to be applied to an image via construction of a bump map or normal map in openGL and DirectX®; adjusting texturing parameters via visual feedback in openGL and DirectX®; and inserting a clear texture back into a PDF file for printing automatically.

Abstract: Systems and methods for extracting text from images rendered on a display screen, the method comprising capturing a color image rendered on a display screen; and transforming the color image to binary color image, preserving text-like graphic components and filtering out non-text-like graphical components. The transforming comprises scanning one or more areas of the color image; and detecting continuous bi-tonal regions in the scanned one or more areas, wherein the continuous bi-tonal regions have large variances.

Abstract: In one aspect, a computer-implemented method is disclosed for providing geographic imagery. The method may include receiving, at a computing device, a request for a geographic image, wherein the geographic image depicts at least a portion of a selected location within a geographic area. In addition, the method may include presenting, with the computing device, the geographic image and superimposing a map including normalized travel way data associated with the geographic area over at least a portion of the geographic image.

Abstract: A system and method are provided for accelerated graphic rendering a view of a design layout view represented by a plurality of graphic objects defined by respective geometry data therefor. A database stores the geometry data having location and geometric portions. A large object module actuates retrieval of the geometry data for each of the graphic objects within the view selectively classified to be a large object. A small object module actuates partial retrieval of the geometry data for each of the graphic objects within the view selectively classified to be a small object, the location portion being thereby retrieved exclusive of the geometric portion of the geometry data for each small object. A rendering control module generates a composite image of the design layout view for display, which includes a geometric reproduction of each large object and an abstracted representation of each small object within the view.

Abstract: Systems and methods for the manipulation of captured light fields and captured light field image data in accordance with embodiments of the invention are disclosed. In one embodiment of the invention, a system for manipulating captured light field image data includes a processor, a display, a user input device, and a memory, wherein a depth map includes depth information for one or more pixels in the image data, and wherein an image manipulation application configures the processor to display a first synthesized image, receive user input data identifying a region within the first synthesized image, determine boundary data for the identified region using the depth map, receive user input data identifying at least one action, and perform the received action using the boundary data and the captured light field image data.

Abstract: An image processing device includes: an input information obtaining section for obtaining input information for changing a display region in an image as a display object; a display image processing section for generating an image inside the display region determined on a basis of the input information as a display image; and a display section for displaying the generated display image on a display, wherein when the input information obtaining section obtains input information for scaling the display image, the display image processing section scales the display image according to the input information, and performs image manipulation making visibility of a region in a predetermined range including a focus as a center of scaling in an image plane different from visibility of another region.

Abstract: A method for in-vehicle dynamic virtual reality includes receiving vehicle data and user data from one or more portable devices, wherein the vehicle data comprises vehicle dynamics data of the vehicle. The method includes generating a virtual view based on the vehicle data, the user data and a virtual world model. The virtual world model including one or more components that define the virtual view and wherein generating the virtual view includes augmenting one or more components of the virtual world model according to at least one of the vehicle data and the user data. The method includes rendering the virtual view to an output device by controlling the output device to update display of the virtual view according to at least one of the vehicle data or the user data.

Abstract: A visualization device is provided that includes an actual light box that includes an illumination array for illuminating an actual object (OR) placed in the actual light box; and a rear limiting wall which functions as a screen. The device also includes a computer programmed to spatially display a virtual light box on the screen, such that the virtual light box displayed on the screen appears to form a continuous rearward extension of the actual light box. In addition, a virtual object (OV) may be displayed on the screen, such that the virtual object (OV) is situated in the virtual light box. The combination of an actual light box and a virtual light box allows an observer to realistically assess appearance data rendered onto a virtual object, in a direct comparison with an actual object.

Abstract: In one embodiment, a 3-D model is employed as a navigable container for 2-D raster images, allowing 2-D raster images to be maintained and displayed within the context of the 3-D model. An image cloud level is provided for the 3-D model. Icons are provided within the image cloud level. Each icon corresponds to a respective 2-D raster image and is located at a position within the 3-D space of the 3-D model that corresponds to a position in the physical space of the physical world where the 2-D raster image was originally captured Upon selection of a particular icon, a combined view is shown, depicting the corresponding 2-D raster image combined with a corresponding portion of the 3-D model.

Abstract: A system, device, computer-readable instructions, and method are provided for mapping and filtering of visual objects to address bump mapping. For example, a system, device, computer-readable instructions, and method are provided as a unified shading model representing both bump orientation and bidirectional radiance distribution function (“BRDF”). The computer-readable instructions are non-transitory, and storable on a storage device, including a CDROM, flashdrive, cloud, processor memory, or other storage capability.

Abstract: Methods, devices, systems, and computer readable media to improve the operation of window-based operating systems is disclosed. In general, techniques are disclosed for correctly rendering areas on a display in which two or more shadows overlap. More particularly, two or more shadow regions (based on the arrangement of overlapping windows/shadows) are identified and merged in a top-down process so that no region's shadow is painted or rendered more than once. To accomplish this a shadowbuffer (analogous to a system's framebuffer) may be used to retain windows' alpha information separately from the corresponding windows' shadow intensity information.

Abstract: Techniques relate to fitting a shape of an object when placed in a desired pose. For example, a plurality of training poses can be received, wherein each training pose is associated with a training shape. The training poses can be clustered in pose space, and a bid point can be determined for each cluster. A cluster-fitted shape can then be determined for a pose at the bid point using the training shapes in the cluster. A weight for each cluster-fitted shape can then be determined. The cluster-fitted shapes can then be combined using the determined weights to determine a shape of the object in the desired pose.

Abstract: Two-dimensional (2D) animation may be generated from a three-dimensional (3D) mesh by a machine or device that flattens, textures, and modifies the 3D mesh, which results in distorting the texture of the 3D mesh. The machine or device is configured to access and flatten a 3D mesh of 3D vertices. At least some of the 3D vertices of the flattened 3D mesh are texture mapped with a 2D image. The machine or device generates a first 2D frame of animation by rendering the 3D mesh (e.g., with graphics acceleration hardware), modifies the 3D mesh by repositioning one or more of the 3D vertices, and generates a second 2D frame of animation by rendering the modified 3D mesh (e.g., with graphics acceleration hardware). Accordingly, 2D animation may be generated by distorting the 2D image that is mapped onto at least part of the 3D mesh.