According to an aspect of the present disclosure, there is provided a method of generating training data related to an artificial intelligence-based detection model, which includes the steps of: generating three-dimensional (3D) model of a hidden target object and 3D model of a hiding tool object, respectively, and combining the 3D model of the hidden target object and the 3D model of the hiding tool object; generating a two-dimensional (2D) image by capturing, in at least one direction, the combined 3D model obtained by combining the 3D model of the hidden target object with the 3D model of the hiding tool object; and processing the generated 2D image with reference to deformation or distortion which occurs in a detection target image obtained by actually capturing a detection target object to be detected.

To allow free animation production in virtual space an animation production method executed by a computer comprising: a step of placing a virtual camera for shooting a character in a virtual space; a step of placing an object to which a size is set in the virtual space; a step of scaling the object according to the size; and a step of generating an image shot by the camera.

A process and method for generation of 3D interactive rendition of space by first digitizing the space as a TXLD file from point clouds, 2-D floor plans, photographs and/or videos, and/or elevation views then processing the file to create 3D interactive renditions of the space using virtual reality, augmented reality, or mixed reality technologies, constantly growing and evolving 3D library of digital representations of both fixtures and non-fixtures based on real products, automating and personalizing product selection and placement for a given user and target environment, using an ensemble recommendation system, which relies on weighted averages of probabilistic, content-based, clustering, and collaborative filtering models, among other suitable models that may be added to the ensemble in the future. If a medium does not necessitate 3D model creation of the environment the products are automatically placed in the medium view based on the encoded position in the TXLD file.

The present specification discloses a method for displaying an AR navigation screen, and an AR navigation system. The method for displaying an AR navigation screen according to the present specification may comprise the steps of: overlapping and displaying images of the surroundings of a vehicle and a plurality of AR images corresponding to the images of the surroundings; generating a window for separately displaying a first area including AR images overlapping at least one of the plurality of AR images; and overlapping and displaying the window and the images of the surroundings. The invention of the present specification has the effect of improving user convenience and promoting safe vehicle operation by using a window when AR images and the like are difficult to recognize due to being overlapped.

A display apparatus including: light source(s) per eye, first tracking means, and processor(s) configured to: process first tracking data, collected by first tracking means, to determine location of display apparatus in real-world environment; obtain software application(s) that is available for location of display apparatus along with metainformation indicative of location in real-world environment with which software application(s) is/are associated; determine relative location of display apparatus with respect to location with which software application(s) is/are associated; execute software application(s) to create and overlay virtual content on image(s) representing real-world environment, based on relative location of display apparatus with respect to location with which software application(s) is/are associated; and display image(s) via light source(s).

A computer-implemented method for displaying augmented reality (AR) content within an AR device coupled to one or more loupe lenses comprising: obtaining calibration parameters defining a magnified display portion within a display of the AR device, wherein the magnified display portion corresponds to boundaries encompassing the one or more loupe lenses; receiving the AR content for display within the AR device; and rendering the AR content within the display, wherein the rendering the AR content comprises: identifying a magnified portion of the AR content to be displayed within the magnified display portion, and rendering the magnified portion of the AR content within the magnified display portion.

Model data of a virtual model imitating an object model is generated based on photographed data obtained by photographing the object model including a joint structure. A given applied joint structure is applied to the virtual model. The virtual model based on the model data is disposed in a given virtual space. Virtual model management data including the model data and data of the applied joint structure is stored in a predetermined storage section or is externally output as data for causing a joint of the virtual model to function.

A non-transitory computer readable medium storing computer executable instructions which, when executed by one or more processors, cause the one or more processors to perform a process including generating avatar information relating to an avatar expression or pose based on streamer data indicating a facial expression or pose of a streamer; acquiring gift information concerned with a gift of an object that is provided from a viewer to the streamer; determining whether the gift information satisfies a predetermined condition; in a case that the gift information is determined to satisfy the predetermined condition, rendering an avatar facial expression or pose using a predetermined facial expression or pose corresponding to the predetermined condition; and in a case that the gift information is determined to not satisfy the predetermined condition, rendering the avatar facial expression or pose using the avatar information generated based on the streamer data.

Methods and systems are provided for generating augmented reality (AR) scenes where the AR scenes can be adjusted to modify at least part of an image of the physical features of a user to produce a virtual mesh of the physical features. The method includes generating an augmented reality (AR) scene for rendering on a display for a user wearing AR glasses, the AR scene includes a real-world space and virtual objects overlaid in the real-world space. The method includes analyzing a field of view into the AR scene from the AR glasses; the analyzing is configured to detect images of physical features of the user when the field of view is directed toward at least part of said physical features of the user. The method includes adjusting the AR scene, in substantial real-time, to modify at least part of the images of the physical features of the user when the physical features of the user are detected to be in the AR scene as viewed from the field of view of the AR glasses, wherein said modifying includes detecting depth data and original texture data from said physical features to produce a virtual mesh of said physical features; the virtual mesh is changed in size and shape and rendered using modified texture data that blends with said original texture data. In one embodiment, the modified physical features of the user appear to the user when viewed via the AR glasses as existing in the real-world space. In this way, when the physical features of a user are detected to be in the AR scene, the physical features are augment in the AR scene which can result in the self-perception of the user improving which in turn can provide the user with confidence to overcome challenging tasks or obstacles during the gameplay of the user.

In accordance with an embodiment, a display device includes a display unit performing a control for displaying a display image related to a predetermined object as a two-dimensional image in a virtual space; and a parameter acquisition unit acquiring a first parameter related to a viewpoint in the virtual space and a second parameter defining a change in the predetermined object, wherein the display unit changes an inclination of the two-dimensional image in the virtual space based on the first parameter and performs the control for displaying the display image related to the predetermined object based on the first parameter and the second parameter.