Abstract: Systems and methods for alerting a user to safety hazards in real-world while the user is wearing a Head-Mounted Display (HMD). In some embodiments, an Information Handling System (IHS) may include: a processor; and a memory coupled to the processor, the memory having program instructions stored thereon that, upon execution by the processor, cause the IHS to: receive an image during execution of a xR application displayed to a user wearing a Head-Mounted Display (HMD) coupled to the IHS; detect an object in the image; associate the object with a landmark selected among a plurality of landmarks usable by the xR application to determine a position of the HMD; and provide to the user, via the HMD, a safety instruction related to the object in response to a distance between the HMD and the selected landmark meeting a distance threshold.

Abstract: A projector includes a display controller that scrolls image data within liquid crystal panels in accordance with operation accepted via an operation/display panel in a case where a display section displays the image data and scrolls the image data that forms combined image data within liquid crystal panels in accordance with operation accepted by the operation/display panel in a case where the display section displays the combined image data. A scroll range over which the image data that forms the combined image data is scrolled in the case where the display section displays the combined image data is wider than a scroll range over which the image data is scrolled in the case where the display section displays the image data.

Abstract: A system and method is provided for generating textured 3D building models from ground-level imagery. Ground-level images for the sides/corners of building objects are collected for identification of key architectural features, corresponding key façade geometry planes, and generation of a 3D building façade geometry. The 3D building model is properly geo-positioned, scaled and textured.

Abstract: The introduced method and system use a 4-dimensional (4D) light field as a background of a scene, instead of 2D background image. Realizing computing a light field takes tremendous amounts of processing power, data storage and time (even with the currently available hardware), the introduced method and system compute and store the light field before rendering a scene. To reduce the time storing and accessing the light field during the rendering process, the introduced method and system also uses a modified video codec to compress and decompress the light field as 2D images.

Abstract: Systems and methods are described for adjusting planar geometry derived from point cloud data associated with a building object by identifying major aspects like vertices and edges of the underlying structure within the point cloud and adjusting an average planar fit for simplified geometries created from the point cloud. Combining the planar geometry or point cloud with orthogonal or street level views improves accuracy and use cases of the planar geometry.

Abstract: Systems, methods, and non-transitory computer-readable media can provide one or more options to adjust, in a virtual three-dimensional space, an image in an initial perspective. At least a first command, provided based on the one or more options, to adjust the image from the initial perspective into an adjusted perspective can be detected. The image can be adjusted, based on at least the first command, into the adjusted perspective in the virtual three-dimensional space to produce an adjusted image. A second command to modify a viewable area of the adjusted image can be detected. At least a portion of the adjusted image can be automatically fitted, when the second command has ceased, within a specified display area while one or more empty regions can be minimized in the specified display area.

Abstract: Techniques are described herein that overcome the limitations of conventional techniques by bridging a gap between user interaction with digital content using a computing device and a user's physical environment through use of augmented reality content. In one example, user interaction with augmented reality digital content as part of a live stream of digital images of a user's environment is used to specify a size of an area that is used to filter search results to find a “best fit”. In another example, a geometric shape is used to represent a size and shape of an object included in a digital image (e.g., a two-dimensional digital image). The geometric shape is displayed as augmented reality digital content as part of a live stream of digital images to “assess fit” of the object in the user's physical environment.

Abstract: An information processing apparatus configured to paste a full-spherical panoramic image along an inner wall of a virtual three-dimensional sphere; calculate an arrangement position for arranging a planar image closer to a center point of the virtual three-dimensional sphere than the inner wall, in such an orientation that a line-of-sight direction from the center point to the inner wall and a perpendicular line of the planar image are parallel to each other, the planar image being obtained by pasting an embedding image to be embedded in the full-spherical panoramic image, on a two-dimensional plane; and display a display image on a display unit. The display image is a two-dimensional image viewed from the center point in the line-of-sight direction in a state in which the full-spherical panoramic image is pasted along the inner wall of the virtual three-dimensional sphere and the planar image is arranged at an arrangement position.

Abstract: A web server receives a request from a client specifying a location and a bounding area. A mapping engine creates a tile grid centered at the specified location. A seed tile is created, including or adjacent to the center location. The web server creates a resource identifier for each tile in the tile grid, and returns the tile grid including the resource identifiers to the client. The resource identifier for each tile includes the location of the seed tile and a position offset for the tile relative to the seed tile, in one embodiment specified in units of northward and eastward movement. The client requests tiles from the system using the resource identifiers previously provided by the system. Upon receiving the request, the mapping engine dynamically renders each requested tile using map data from the map database, and the web server returns the dynamically-generated tiles to the requesting client.

Abstract: An intelligent terminal includes unique features and integrated components to provide the ultimate dynamic viewing experience. The intelligent terminal is transportable and can function as a tablet, a laptop, or a desktop. The intelligent terminal is also configured to receive display data from an electronic device, via at least one processor and a network interface. The intelligent terminal includes a display screen that is configured to rotate about an axis that is normal to the display screen and is further configured to modify its display pixel density, brightness, clarity, color, either automatically or in response to a user input. The modified display data, based on the axial orientation of the screen, a display data attribute, the ambient conditions, the user's viewing parameters, and an electronic device attribute, is further configured to generate an image for display on the display screen that provides the most optimal and comfortable dynamic viewing experience.

Abstract: A system and method is provided for generating textured building models from wirelessly captured ground-level imagery. Ground-level images of facades of building objects are collected for identification of geometry planes and generation of building façade geometry. The 3D building model is properly geo-positioned, scaled and textured.

Abstract: A computing device may allocate a plurality of blocks in the memory, wherein each of the plurality of blocks is of a uniform fixed size in the memory. The computing device may further store a plurality of bandwidth-compressed graphics data into the respective plurality of blocks in the memory, wherein one or more of the plurality of bandwidth-compressed graphics data each has a size that is smaller than the fixed size. The computing device may further store data associated with the plurality of bandwidth-compressed graphics data into unused space of one or more of the plurality of blocks that contains the respective one or more of the plurality of bandwidth-compressed graphics data.

Abstract: System and method for low latency correction of projection errors due to view point movement in a virtual or augmented reality context of head-mounted projected image displays such as glasses or goggles worn on the head of a user which project images onto a retro-reflective surface for return to the eyes of said user.

Abstract: An exemplary volumetric reconstruction system accesses a voxel node within a voxel data store and determines an intermediate confidence field value for the voxel node. The voxel node corresponds to a surface point on a surface of an object in a real-world capture space and the intermediate confidence field value is determined based on color and depth data captured for the voxel node by each capture device of a plurality of capture devices positioned with respect to the real-world capture space so as to have different vantage points of the surface of the object. The volumetric reconstruction system stores, within the voxel node of the voxel data store, the intermediate confidence field value as a confidence field value associated with the voxel node. Based on the confidence field value, the volumetric reconstruction system generates reconstructed color and depth data for a volumetric reconstruction of the surface of the object.

Abstract: These techniques described herein overcome the limitations of conventional techniques by bridging a gap between user interaction with digital content using a computing device and a user's physical environment through use of augmented reality content. In one example, user interaction with augmented reality digital content as part of a live stream of digital images of a user's environment is used to specify a size of an area that is used to filter search results to find a “best fit”. In another example, a geometric shape is used to represent a size and shape of an object included in a digital image (e.g., a two-dimensional digital image). The geometric shape is displayed as augmented reality digital content as part of a live stream of digital images to “assess fit” of the object in the user's physical environment.

Abstract: These techniques described herein overcome the limitations of conventional techniques by bridging a gap between user interaction with digital content using a computing device and a user's physical environment through use of augmented reality content. In one example, user interaction with augmented reality digital content as part of a live stream of digital images of a user's environment is used to specify a size of an area that is used to filter search results to find a “best fit”. In another example, a geometric shape is used to represent a size and shape of an object included in a digital image (e.g., a two-dimensional digital image). The geometric shape is displayed as augmented reality digital content as part of a live stream of digital images to “assess fit” of the object in the user's physical environment.

Abstract: Systems, methods, and computer readable media to implement tessellation edge shaders. Various embodiments receive tessellation patch information that includes patch information and shared edges for the patches. Based on the received patch information, edge tessellation levels for the shared edges may be determined and used to modify edge tessellation levels initially computed for the shared edges. The various embodiments can then generate vertices for a shared edge with the updated edge tessellation levels to adjoin the shared edges without forming cracks. The vertices may be used to render a surface of an object within a digital image or a sequence of digital images.

Abstract: Improper positioning of architectural features is corrected during construction or reconstruction of a multi-dimensional (e.g., 3D) building model using known architectural dimensions and known relationships to planes (facades). The system identifies architectural elements that have known architectural standard positions relative to planes within the multi-dimensional model. Dimensional measurements of architectural elements in the multi-dimensional model are used to properly position one or more architectural elements relative to associated planes within the multi-dimensional building model. For example, a window position on a 3D building model first façade is moved inward (offset) according to the known relationship of a window (architectural element) being inset relative to a façade (e.g., exterior wall). In addition, a window frame could be repositioned outwardly relative to the same façade plane based on a known relationship of a frame being located on an external surface of the façade (e.g.

Abstract: An exemplary volumetric reconstruction system accesses captured color and depth data for a surface of an object in a real-world capture space. The captured color and depth data is captured by capture devices positioned with respect to the real-world capture space to have different vantage points of the surface of the object. Based on the captured color and depth data, the volumetric reconstruction system generates reconstructed color and depth data for a volumetric reconstruction of the surface of the object. The generating of the reconstructed color and depth data includes allocating voxel nodes for surface points on the object within a voxel data store, determining and storing a confidence field value for each voxel node that accounts for a distance factor and a noise-reduction factor, and determining the reconstructed color and depth data using a raytracing technique based on the stored confidence field values within the voxel data store.

Abstract: An apparatus and method are described for intelligent resource provisioning for shadow structures. For example, one embodiment of an apparatus comprises: graphics processing unit (GPU) to process graphics commands and responsively render a plurality of image frames in a graphics memory address space; shadow structure management logic to reserve one or more shadow slots in the graphics memory address space in which to store shadow instances of different GPU contexts; and the shadow structure management logic to implement a partial shadowing policy for shadowing GPU contexts in the shadow slots, the partial shadowing policy based on characteristics of pages of the GPU contexts.