Abstract: Methods, systems, and apparatuses are described for determining deformation of gingiva. A three-dimensional (3D) digital model of an archform comprising a representation of gingiva and a tooth may be received. The 3D model may comprise a 3D mesh describing a surface of the gingiva, the tooth, and a contour between the gingiva and the tooth. A tooth-movement displacement may be applied to the vertices corresponding to the tooth in the 3D mesh and the vertices corresponding to the contour. A vertex-specific displacement may be determined for each of the vertices corresponding to the gingiva by solving a harmonic equation. The 3D digital model may be updated.

Abstract: Methods, systems and apparatuses may provide for technology that generates a point cloud model of an object depicted in image content associated with a plurality of physical cameras, generates a color projection of the point cloud model based on viewpoint information associated with a virtual camera, and excludes background color information from the color projection based on one or more segmentation masks associated with the object. The technology may also exclude peripheral information from the color projection based on at least one of the segmentation mask(s) and the viewpoint information.

Abstract: An example image processing apparatus disposes a virtual camera and a terrain object in a virtual space, and generates grass objects at a predetermined region located with reference to a land horizon that is a boundary between the terrain object and a background as viewed from the virtual camera. A player character is displayed at a position closer to the virtual camera, and the grass objects are generated in the predetermined region located with reference to the land horizon. Therefore, the terrain can be represented to look real, and the player character can be more easily seen.

Abstract: A method is used in processing graphics in computing environments. A user interface layer receives a request from a user to rasterize an interactive image rendered in a user interface. A rasterizing module rasterizes the interactive image at the user interface layer associated with the user interface. The rasterizing module transmits the rasterized image to a reporting service for reporting out the rasterized image.

Abstract: A virtual reality (VR) labeling computer system configured to receive a 3D model, process the 3D model using object recognition, identify at least one environmental feature within the 3D model, generate a processed 3D model including the at least one environmental feature, display a VR environment based upon the processed 3D model; receive user input including labeling data associated with the environmental feature; generate a labeled 3D model by embedding the labeling data into the processed 3D model; and generate training data based upon the labeled 3D model.

Abstract: Generating a look of characters using visible brush strokes, including: receiving an input image and a pattern image; replacing each patch in the pattern image with an average color of pixels in the input image corresponding to pixels of each patch to produce a color-averaged output; and applying distortion to the color-averaged output using a distortion image.

Abstract: A method of editing a digital three-dimensional structure associated with one or more two-dimensional texture in real time is disclosed, wherein the structure and one or more texture are processed and output same in a user interface, and user input is read in the user interface and processed into a cut shape of the three-dimensional structure. A simplified structure is generated based on the three-dimensional structure, and points of the cut shape are associated with the simplified structure to generate a curve. Points of the curve corresponding to edges of the curve on the simplified structure are determined, and geometrical characteristics and texture coordinates of the new points calculated. A new three dimensional structure is generated along the curve and layers of the structure are joined, for the cut and layered structure to be rendered in the user interface. An apparatus embodying the method is also disclosed.

Abstract: An example image processing apparatus disposes a virtual camera and a terrain object in a virtual space, and generates grass objects at a predetermined region located with reference to a land horizon that is a boundary between the terrain object and a background as viewed from the virtual camera. A player character is displayed at a position closer to the virtual camera, and the grass objects are generated in the predetermined region located with reference to the land horizon. Therefore, the terrain can be represented to look real, and the player character can be more easily seen.

Abstract: A slave device communicates with a host system via a host communications bus. The host system includes one processing unit that can act as bus master and send access requests for slave resources on the slave device via the communications bus. The slave device platform includes a memory management unit, a programmable central processing unit and one slave resource. The memory management unit acts as an address translating device, and accepts requests with virtual addresses from a master device on the host system, translates the virtual addresses used in the access request to the “internal” physical addresses of the slave's resources and forwards the accesses to the appropriate physical resource. When an address miss occurs in the memory management unit, it passes the handling of the access request over to the controlling CPU which executes software to then resolve the address miss and handle the access request.

Abstract: Various implementations disclosed herein render virtual content while accounting for air-born particles or lens-based artifacts to improve coherence or to otherwise better match the appearance of real content in the images with which the virtual content is combined.

Abstract: One aspect of the disclosure provides a method for rendering an image. The method includes: placing primitives of the image in a screen space; binning the primitives into tiles of the screen space that the primitives touch; and rasterizing the tiles. The aforementioned rasterizing includes shading a subset of the primitives binned to one of the tiles over multiple passes at multiple shading rates, each of the shading rates is based at least on a frequency at which a color being shaded at each pass changes across the screen space, and the subset of the primitives are cached in an on-chip memory of a processor rendering the image between the passes.

Abstract: A system, method, and computer-readable medium for servicing a system, comprising: displaying animated content relative to the system; determining a snapshot function has been initiated; sending a request to a user of an augmented reality device with a camera to move the augmented reality device relative to the system; capturing information about components in the system and a configuration of the system; generating a three dimensional (3D) model of the system based on the captured information; and displaying a composite view of the model or an overlay based on the model and animated content related to a component.

Abstract: A system and method of displaying of multiple simultaneous views of a same region of a biological tissue sample. Logical instructions are executed by a processor to perform operations such as receiving a plurality of images of the biological tissue sample, converting the plurality of images to a common reference frame based on the individual metadata of each image, and arranging the plurality of images into a display pattern for simultaneous viewing of different aspects of the imaged biological tissue sample on a display screen. The plurality of images is produced by preprocessing images of the biological tissue sample. Each image shows a view mode of a same region of the biological tissue sample, and each image contains metadata that describe spatial orientation, such as the translation, rotation, and magnification, of the image to bring the plurality of images to a common view.

Abstract: An image processing apparatus for generating an image from volumetric data includes processing circuitry configured to: obtain a volumetric data set; obtain a heterogeneity map based on the volumetric data set; determine positions of a set of non-periodic sampling points using the heterogeneity map; generate from the volumetric data set a set of sampled data values based on the determined positions of the non-periodic sampling points; and generate an image data set by performing an aggregation process to generate a set of image data points from the set of sampled data values.

Abstract: Systems and methods provide a provisioning framework for a distributed graphics processing unit (GPU) service. A network device in a network receives, from an application, a service request for multi-access edge compute (MEC)-based virtual graphic processing unit (vGPU) services. The network device receives real-time utilization data from multiple MEC clusters in different MEC network locations and generates a utilization view of the multiple MEC clusters in the different MEC network locations. The network device selects, based on the real-time utilization view, one of the different MEC network locations to provide the vGPU services and instructs a of the multiple MEC clusters in the one of the different MEC network locations to perform container provisioning and service provisioning for the vGPU services.

Abstract: An augmented reality system includes a first scene and a second scene. Further, the augmented reality system includes a partially reflective surface positioned relative to the first scene, the second scene, and an audience to facilitate viewing of one of the first scene or the second scene through the partially reflective surface and to facilitate reflection of the other of the first scene or the second scene toward the audience as augmented reality imagery. A sensor of the augmented reality system is designed to detect and generate data indicative of a characteristic of the first scene, and a correlative effect system is operable to receive the data and adjust the second scene based thereon.

Abstract: An image processing method is disclosed, comprising: receiving a plurality of images of an object; and, for each image, determining a brightness value for each point on the object that is visible, and generating a tile grid for the image. Each point that is visible in an image corresponds to one tile in the tile grid. For each tile pair where at least one point is visible in both tiles of the tile pair, a brightness offset value is determined. For each image, an offset matrix is generated. Values of the offset matrix comprise brightness offsets to apply to each tile of a tile grid for the image to normalize the brightness of the image with the other images. A plurality of reconstructed images is generated based on performing, for each image, transformation operations on the given image based on the corresponding offset matrix to generate a reconstructed image.

Abstract: To achieve a balance between responsiveness of image display with respect to movement of a viewing point, and image quality. Reference viewing points are set in respect of a space containing an object to be displayed, and images of the space as viewed from these respective reference viewing points are created as reference images. Meanwhile, when pixel values of display images from a virtual camera are determined, reference images are selected wherein a point on the object represented by the pixel in question is represented as an image, and the values of these pixels are combined using a rule based on the positional relationship etc. of the reference viewing points with the virtual camera.

Abstract: In one embodiment, a method includes generating rays for casting into an artificial reality scene that includes one or more surfaces to determine whether the one or more surfaces are visible from a viewpoint. The method includes determining points of intersection between the rays and the one or more surfaces. The method includes determining, based on the points of intersection, color values corresponding to output positions of a display system. The method includes accessing brightness adjustment data corresponding to the output positions of the display system. The brightness adjustment data are determined based on one or more characteristics of the display system. The method includes applying one or more brightness adjustments to the color values based on the brightness adjustment data. The method includes providing the color values for display at the corresponding output positions of the display system.

Abstract: Provided is a three-dimensional (“3D”) analysis tool or device for generating visualizations for attributes in different multi-plane slice of a point cloud or 3D image. The device may receive a point cloud with a plurality of data points that are distributed across a plurality of different planes and that collectively produce a 3D image. The device may select a set of the plurality of data points that are located within a particular slice of the point cloud, may generate a visualization from one or more attributes of the set of data points, and may present the visualization of the one or more attributes for the set of data points in a different format than a rendering of the set of data points.