Abstract: Disclosed is a method of localizing a user operating a plurality of sensing components, preferably in an augmented or mixed reality environment, the method comprising transmitting pose data from a fixed control and processing module and receiving the pose data at a first sensing component, the pose data is then transformed into a first component relative pose in a coordinate frame based on the control and processing module. A display unit in communication with the first sensing component is updated with the transformed first component relative pose to render virtual content with improved environmental awareness.

Abstract: Techniques for implementing and/or operating an electronic device that includes a display panel, which displays an image and includes a first panel section implemented with a lower pixel resolution and a second panel section implemented with a higher pixel resolution, an optical sensor disposed behind the first panel section of the display panel, and image processing circuitry communicatively coupled to the display panel. The image processing circuitry receives source image data corresponding with the image, in which the source image data is indicative of target luminance of a display pixel, determines a pixel resolution surrounding the display pixel, processes the source image based at least in part on the pixel resolution surrounding the display pixel to facilitate determining display image data corresponding with the display pixel, and outputs the display image data to enable the display panel to display the image based on the display image data.

Abstract: There is provided an information processing device and an information processing method, capable of appropriately restricting viewing of content based on a result of sensing a real space. The information processing device includes a viewing restricting unit configured to restrict, on the basis of a predetermined condition, viewing of a part of content corresponding to a partial space of a real space among content of a free viewpoint generated based on a sensing result for the real space.

Abstract: A method, computer system, and computer program product for augmented reality sound visualization is provided. The embodiment may include capturing soundwave data from one or more sensors. The embodiment may also include determining if an emitted soundwave associated with the captured soundwave data is injurious to a user. The embodiment may further include, in response to determining the emitted soundwave is injurious to the user, generating an overlay for an augmented reality device that visualizes the captured soundwave data. The embodiment may also include displaying the overlay in an augmented reality environment based on the user satisfying a threshold distance to the emitted soundwave.

Abstract: Examples of extended reality environment generation are provided. The techniques for extended reality environment generation may include receiving digital content and metadata associated with a physical environment and generating a digital layout of the physical environment by scaling the received digital content. Next, Global Positioning System (GPS) coordinates and functional coordinates are associated with placement locations in the digital layout. Further, a pre-defined placement of an asset is received in the digital layout and a set of GPS coordinates and a set of functional coordinates are identified for the asset placed in the digital layout. Next, the set of GPS coordinates and the set of functional coordinates are associated with metadata of the asset and the asset stored along with the metadata as a model linked with the digital layout. Further, an extended reality environment for the physical environment is generated with the assets by extracting the model.

Abstract: An electronic device and method are disclosed herein. The electronic device includes a display and processor. The processor implements the method including executing an application, and based on detecting a frame drop, identifying an insertion position of an interpolation image for a plurality of images generated by execution of the application. An interpolation image is generated based on the identified insertion position and the interpolation image is inserted into the plurality of images at the identified insertion position.

Abstract: Aspects of the technology described herein relate to techniques for guiding an operator to use an ultrasound device. Thereby, operators with little or no experience operating ultrasound devices may capture medically relevant ultrasound images and/or interpret the contents of the obtained ultrasound images. For example, some of the techniques disclosed herein may be used to identify a particular anatomical view of a subject to image with an ultrasound device, guide an operator of the ultrasound device to capture an ultrasound image of the subject that contains the particular anatomical view, and/or analyze the captured ultrasound image to identify medical information about the subject.

Abstract: Methods, systems, and devices that support a dynamic screen refresh rate are described. An electronic device may dynamically (e.g., autonomously, while operating) adjust the rate at which a screen is refreshed, such as to balance considerations such as user experience and power consumption by the electronic device. For example, the electronic device may use an increased refresh rate when executing applications for which user experience is enhanced by a higher refresh rate and may use a decreased refresh rate when executing other applications. As another example, the electronic device may use different refresh rates while executing different portions of the same application, as some aspects of an application (e.g., more intense portions of a video game) may benefit more than others from a higher refresh rate. The electronic device may also account of rother factors, such as battery level, when setting or adjusting the refresh rate of the screen.

Abstract: A method (400) of rendering a virtual object on a portable device is disclosed. The method (400) comprises: accessing (402) a user schedule comprising scheduled locations of a user corresponding with scheduled moments in time, comparing (404) a current moment in time with the scheduled moments in time to select (406) a scheduled location corresponding with one of the scheduled moments in time that corresponds with the current moment in time, obtaining (408) a location of the portable device (100), and rendering (410) the virtual object on an image rendering device (102) of the portable device (100) only if the location of the portable device (100) corresponds with the selected scheduled location.

Abstract: A system comprising: a user device, comprising: sensors configured to sense data related to a physical environment of the user device, displays; hardware processors; and a non-transitory machine-readable storage medium encoded with instructions executable by the hardware processors to: place a virtual object in a 3D scene displayed by the second user device, determine a pose of the user device with respect to the physical location in the physical environment of the user device, and generate an image of virtual content based on the pose of the user device with respect to the placed virtual object, wherein the image of the virtual content is projected by the one or more displays of the user device in a predetermined location relative to the physical location in the physical environment of the user device.

Abstract: Described herein are methods and systems for remote visualization of three-dimensional (3D) animation. A sensor of a mobile device captures scans of non-rigid objects in a scene, each scan comprising a depth map and a color image. A server receives a first set of scans from the mobile device and reconstructs an initial model of the non-rigid objects using the first set of scans. The server receives a second set of scans. For each scan in the second set of one or more scans, the server determines an initial alignment between the depth map and the initial model. The server converts the depth map into a coordinate system of the initial model, and determines a displacement between the depth map and the initial model. The server deforms the initial model to the depth map using the displacement, and applies a texture to at least a portion of the deformed model.

Abstract: A system may include a display and a processor communicatively coupled to the display. The processor may be implemented as a neural network. The processor may be configured to: receive image data associated with a location; receive geo-specific data associated with the location; use the image data and the geo-specific data to generate a photo-realistic image, wherein the photo-realistic image contains photo-typical content in geographically correct locations, wherein the photo-typical content appears typical for the location based at least on the geo-specific data; and output the photo-realistic image to the display for presentation to a user.

Abstract: The present disclosure relates to an extended reality (XR) device and a method for controlling the same. More particularly, the present disclosure is applicable to all of the technical fields of 5th generation (5G) communication, robots, self-driving, and artificial intelligence (AI). The XR device comprises a display; a wireless communication module performing communication with an external server that provides Augmented Reality (AR) information; a first camera receiving an image that includes at least one object of a real world; and a processor acquiring AR information on the object from the external server through the wireless communication module and displaying the acquired AR information on the display, wherein the processor displays an icon instead of the AR information based on situational characteristics of the XR device, and acquires and displays the AR information, in response to an input for selecting the icon.

Abstract: A wearable assembly of smart headset display and a smart garment, which includes: a garment, having a wiring structure with a plurality of sensing nodes for generating a set of sensing data; and a smart headset display device, having at least one lens unit and a control unit, the control unit is used for receiving the set of sensing data, and using said set of sensing data to generate a first image data to drive the at least one lens unit for providing a body model dynamic picture; or using said set of sensing data and a set of reference dynamic picture data to generate a second image data, and the at least one lens unit is driven according to the second image data for simultaneously providing a body model dynamic picture and a reference dynamic picture desired to learn.

Abstract: A user wears a virtual reality mask (VR mask) (100) and then watches a virtual reality image. The VR mask (100) blocks light incident from the outside. When the user wears the VR mask (100), the user cannot discover an obstacle (500) positioned outside the VR mask (100). The user may collide with the obstacle (500) and may be injured by the obstacle (500). Accordingly, in order to prevent injury to the user who uses the VR mask (100), it is necessary to make the user recognize the obstacle (500) positioned outside the VR mask (100). In order to recognize an obstacle, a virtual reality image and the obstacle may be displayed together, or the amount of light incident from the outside may be adjusted.

Abstract: This application discloses an image display method performed at an electronic device. The electronic device obtains a target location of a virtual object in a map scene displayed on a screen of the electronic device. After identifying a virtual building within a preset range centered on the target location, the electronic device gradually decreases the virtual building from a display height of the virtual building to a first target display shape of the virtual building. Next, the electronic device displays the first target display shape of the virtual building in the map scene. In response to a movement of the virtual object in the map scene, the electronic device gradually resumes the virtual building from the first target display shape to the display height when the virtual building is outside the preset range centered on the updated target location of the virtual object in the map scene.

Abstract: According to the present disclosure, an apparatus and a method for around view monitoring using a LIDAR are provided. An around view monitoring apparatus according to the present disclosure includes: a traveling environment detector that detects traveling environment information for front, rear, left, and right detection areas of a vehicle using a LIDAR; a boundary extractor that extracts outlines of objects positioned in the detection areas and lanes from the detected traveling environment information; a video generator that generates images frames of the detection areas of the vehicle based on the outlines of the objects and the lanes that are extracted and generates a traveling environment video by combining the image frames; and a traveling environment outputter that outputs the generated traveling environment video.

Abstract: A cognitive assessment system enabling an object under test to complete self-cognitive assessment required for the financial risk control services in the network platform environment. The invention provides an environment platform for the object under test to obtain the self-cognitive results required for the risk control services, so as to judge the credit attitude and capability of the object under test, avoid the financial credit risks, and thoroughly solve the defect that the attitude of the object under test cannot be measured through the traditional risk control assessment. In view of the risk control in credit business, the invention solves the risk problems of actual credit capacity and credit attitude of natural persons or enterprises and public institutions, avoids the errors caused by a questionnaire method in traditional operations, improves and enriches the risk control content in the financial industry.

Abstract: A method for providing a graphical user interface with animated background, including displaying a background image in a display area and an image movable on the background image; determining whether to display an animated object according to a predetermined condition to obtain a result when the image is moved to a pre-defined visual focus; and displaying the animated object when the result indicates that it is determined to display the animated object. The image is movable along a central line of the display area, and the predetermined condition comprises that a time parameter is met. A system and a storage medium for implementing the method are also disclosed.

Abstract: Methods, systems, and apparatus, including medium-encoded computer program products, for computer aided design of structures include, in one aspect, a method for producing continuous (G2) NURBS surfaces from arbitrary subdivision surface meshes, the method including: obtaining a control mesh of a subdivision surface; obtaining limit surface patches subdivided from the control mesh using at least two levels around any extraordinary regions of the control mesh; discarding discontinuous surface patches, which include a star point; producing replacement surface patches for the discarded patches using adjacent surface patches, wherein the replacement surface patches are curvature continuous with each other and with the adjacent surface patches; combining each of the replacement surface patches with at least one non-discarded surface patch generated from a same polygon of the control mesh as the replacement surface patch; and processing the combined surface patches for output by a physical device.