Abstract: A display device of the present invention includes a display controller executing display control processing of controlling an operation of a predetermined display destination to cause the display destination to display a plurality of N-dimensional graphs. The plurality of N-dimensional graphs include a first graph and a second graph. When a predetermined condition related to acquisition of fixed value change information including auxiliary explanatory variable information designating one or more of auxiliary explanatory variables as objects to be changed in value, and information indicating current variable values is satisfied, the display control processing includes processing of updating the first graph and the second graph to be displayed on the display destination to a changed graph due to changing of values of the auxiliary explanatory variables indicated by the auxiliary explanatory variable information to the current variable values indicated by the fixed value change information.

Abstract: Methods, systems, and apparatus, including computer programs encoded on computer storage media relate to a method for ingesting 3D objects from a virtual environment for 2D data representation. The system may provide a video conference session including a first video stream of a video conference participant and a second video stream of a virtual environment. The system may receive a 3D data representation of a 3D object in the virtual environment and generate a 2D data representation of the 3D object based on the 3D data representation. The system may display the 2D data representation in the video conference session.

Abstract: A display control device is a device that controls four display devices provided in an automobile, and includes: four image generating units that generate four on-screen displays; a setting unit that sets a color display mode as a set display mode; and an image processing unit that unifies a color display mode of each of the four on-screen displays generated to the set display mode, and display each of the four on-screen displays that have been unified to the set display mode on a different one of the four display devices.

Abstract: Systems and associated methods are provided for distributed three-dimensional (3D) content generation whereby different 3D assets for a 3D scene are generated by different asset generators at different network tiers according to the latency sensitivity of each 3D asset. The system retrieves a 3D asset for the requested 3D scene, and differentiates a first 3D asset that is latency sensitive from a second 3D asset that is latency tolerant. The system generates the first 3D asset with a first asset generator at a first network tier, and generates the second 3D asset with a second asset generator at a more distant second network tier. The system distributes the generated primitives for the first 3D asset to the user device with a first amount of latency and the generated primitives for the second 3D asset to the user device with a second amount of latency.

Abstract: Disclosed herein are systems and methods that relate to wireless communication mesh network design and operation.

Abstract: The technique of this disclosure suppresses a reduction in visibility of a predetermined object in virtual viewpoint image data. An image processing apparatus includes: an image capturing information acquisition unit configured to acquire image capturing information indicating a position and orientation of each of a plurality of image capturing apparatuses; an object information acquisition unit configured to acquire object information indicating a position and orientation of an object to be captured by the image capturing apparatuses, the object having a specific viewing angle; and a determination unit configured to determine, based on the acquired image capturing information and the position and orientation of the object indicated by the acquired object information, an image to be used for generating a virtual viewpoint image according to a position and orientation of a virtual viewpoint among a plurality of images based on capturing by the image capturing apparatuses.

Abstract: An electronic device includes a camera, a display, and a processor, wherein the processor is configured to acquire an image using the camera, determine a 3D graphic object corresponding to an object included in the acquired image, and apply the determined 3D graphic object to a 3D avatar and display the same.

Abstract: According to various embodiments, an augmented reality device may comprise a display, at least one camera, a communication circuit, and at least one processor operatively connected with the display, the at least one camera, and the communication circuit. The at least one processor may be configured to obtain a first image through the at least one camera, identify that a wireless power receiver and a wirelesspower transmitter configured to transmit wireless power to the wirelesspower receiver are included in the first image, receive information regarding the wireless power from the wirelesspower receiver through the communication circuit, and display, on the display, an augmented reality object indicating an arrangement of at least one of the wirelesspower transmitter or the wirelesspower receiver, based on the information regarding the wireless power.

Abstract: Various implementations disclosed herein include devices, systems, and methods that uses object relationships represented in the scene graph to adjust the position of objects. For example, an example process may include obtaining a three-dimensional (3D) representation of a physical environment that was generated based on sensor data obtained during a scanning process, detecting positions of a set of objects in the physical environment based on the 3D representation, generating a scene graph for the 3D representation of the physical environment based on the detected positions of the set of objects, wherein the scene graph represents the set of objects and relationships between the objects, and determining a refined 3D representation of the physical environment by refining the position of at least one object in the set of objects based on the scene graph and an alignment rule associated with a relationship in the scene graph.

Abstract: Techniques for responsive video canvas generation are described to impart three-dimensional effects based on scene geometry to two-dimensional digital objects in a two-dimensional design environment. A responsive video canvas, for instance, is generated from input data including a digital video and scene data. The scene data describes a three-dimensional representation of an environment and includes a plurality of planes. A visual transform is generated and associated with each plane to enable digital objects to interact with the underlying scene geometry. In the responsive video canvas, an edit positioning a two-dimensional digital object with respect to a particular plane of the responsive video canvas is received. A visual transform associated with the particular plane is applied to the digital object and is operable to align the digital object to the depth and orientation of the particular plane. Accordingly, the digital object includes visual features based on the three-dimensional representation.

Abstract: A tinting material may be generated and applied to the backdrop of an application presented on a user interface. The user interface is presented on a display and includes a background. The background comprises a first color, which includes a luminosity value, a hue value, and a saturation value. A tint color, having a luminosity value, a hue value, a saturation value, and an opacity value, is received. The luminosity value of the first color is modified to generate a second color, and the hue value and saturation value of the generated second color are modified to generate a third color. A tinting material color is generated that includes the modified luminosity value of the second color, the modified hue value of the third color, and the modified saturation value of the third color, and an application is presented on the user interface that includes the tinting material color.

Abstract: A holographic aberration correction method and apparatus are provided. The holographic aberration correction apparatus includes: generating a plurality of sub-holograms in a hologram, as a matrix; calculating a plurality of eigenmodes and an eigenvalue and a weight corresponding to each of the eigenmodes by performing singular value decomposition on the matrix; selecting a predefined number of eigenmodes in the order of largest eigenvalues; calculating a plurality of first results which are obtained by multiplying a plurality of identical images by respective weights corresponding to the plurality of selected eigenmodes; calculating a plurality of second results by performing convolution of the plurality of first results and the plurality of selected eigenmodes, respectively; and generating an aberration-corrected hologram by adding the plurality of second results.

Abstract: A platform, web application, system, and methods are disclosed for creating digital 3D scenes having digital 3D objects and for creating images of the digital 3D scenes. The platform can be communicatively coupled with the web application. The platform can apply a multi-stage method to convert high-fidelity digital 3D objects into low-fidelity digital 3D objects, store a mapping between them, and transmit low-fidelity digital 3D objects to the web application. The web application can include user interfaces for manipulating low-fidelity digital 3D objects to create low-fidelity digital 3D scenes. The platform can automatically convert low-fidelity digital 3D scenes received from the web application into high-fidelity digital 3D scenes and create high-fidelity 2D images.

Abstract: A computer-implemented method for autonomous reconstruction of vessels on computed tomography images, includes: providing a reconstruction convolutional neural network (CNN); receiving an input 3D model of a vessel to be reconstructed; defining a region of interest (ROI) and a movement step, wherein the ROI is a 3D volume that covers an area to be processed; defining a starting position and positioning the ROI at the starting position; reconstructing a shape of the input 3D model within the ROI by inputting the fragment of the input 3D model within the ROI to the reconstruction convolutional neural network (CNN) and receiving the reconstructed 3D model fragment; moving the ROI by the movement step along a scanning path; repeating the reconstruction and moving steps to reconstruct a desired portion of the input 3D model at consecutive ROI positions; and combining the reconstructed 3D model fragments.

Abstract: A client device that includes a camera and an extended reality client application program is employed by a user in a physical space, such as an industrial or campus environment. The user aims the camera within the mobile device at a real-world asset, such as a computer system, classroom, or vehicle. The client device acquires a digital image via the camera and detects textual and/or pictorial content included in the acquired image that corresponds to one or more anchors. The client device queries a data intake and query system for asset content associated with the detected anchors. Upon receiving the asset content from the data intake and query system, the client device generates visualizations of the asset content and presents the visualizations via a display device.

Abstract: Systems and techniques are provided for performing video-based activity recognition. For example, a process can include generating a three-dimensional (3D) model of a first portion of an object based on one or more frames depicting the object. The process can also include generating a mask for the one or more frames, the mask including an indication of one or more regions of the object. The process can further include generating a 3D base model based on the 3D model of the first portion of the object and the mask, the 3D base model representing the first portion of the object and a second portion of the object. The process can include generating, based on the mask and the 3D base model, a 3D model of the second portion of the object.

Abstract: A target detection method and apparatus are provided. A first image of a target scenario collected by an image sensor is analyzed to obtain one or more first 2D detection boxes of the target scenario, and a three-dimensional point cloud of the target scenario collected by a laser sensor is analyzed to obtain one or more second 2D detection boxes of the target scenario in one or more views (for example, a BEV and/or a PV). Then, comprehensive analysis is performed on a matching degree and confidence of the one or more first 2D detection boxes, and a matching degree and confidence of the one or more second 2D detection boxes, to obtain a 2D detection box of a target. Finally, a 3D model of the target is obtained based on a three-dimensional point corresponding to the 2D detection box of the target.

Abstract: Systems and methods are provided that include a processor executing an avatar generation program to obtain driving view(s), calculate a skeletal pose of the user, and generate a coarse human mesh based on a template mesh and the skeletal pose of the user. The program further constructs a texture map based on the driving view(s) and the coarse human mesh, extracts a plurality of image features from the texture map, the image features being aligned to a UV map, and constructs a UV positional map based on the coarse human mesh. The program further extracts a plurality of pose features from the UV positional map, the pose features being aligned to the UV map, generates a plurality of pose-image features based on the UV map-aligned image features and UV map-aligned pose features, and renders an avatar based on the plurality of pose-image features.

Abstract: Systems and methods for super sampling and viewport shifting of non-real time 3D applications are disclosed. In one embodiment, a graphics processing unit includes a processing resource to execute graphics commands to provide graphics for an application, a capture tool to capture the graphics commands, and a data generator to generate a dataset including at least one frame based on the captured graphics commands and to modify viewport settings for each frame of interest to generate a conditioned dataset.

Abstract: Systems, methods, and computer readable media for augmented reality beauty product tutorials. Methods disclose determining from live images of an augmented reality (AR) tutorial effects, the effects indicating changes to the live images of a presenter of the AR tutorial from a beauty product being applied to a body part of the presenter. The methods further comprising determining from the live images motion, the motion indicating motion of the beauty product from the beauty product being applied to the body part of the presenter and storing the effects and the motion.