Abstract: Example embodiments relate to providing mobile augmented reality for an enclosed area. In example embodiments, controller device receives a fixed video stream from a fixed camera and a mobile video stream of a current field of view of a mobile user device. The mobile user device comprises a reality augmentation module to project information on the current field of view. Further, the controller device includes a tracking module to identify a position and orientation of a mobile user of the mobile user device based on image processing of the fixed video stream and a fuzzy map module to use a fuzzy map of the enclosed area and the position and orientation of the mobile user to identify items of interest in the current field of view of the mobile user device, where the fuzzy map is generated based on a floor plan of the enclosed area.

Abstract: A method is provided for markerless injection of content into an augmented reality scene by use of a mobile device. Through the mobile device, a camera feed of a scene is acquired, which includes a flat surface. A key frame of the flat surface is selected from the feed. After determining that the flat surface in the key frame meets a predetermined level of feature richness, digital content is injected by superimposing text, graphics, video content over at least a part of the key frame. The digital content can be viewed and interacted with by the user of the mobile device. In one embodiment, the digital content is an advertisement.

Abstract: Aspects of the present invention provide computer systems, apparatuses, computer-executable methods and one or more non-transitory computer-readable media for receiving gesture input via virtual controls.

Abstract: Embodiments of the present invention provide systems, methods, and computer storage media for facilitating rotation of images in response to gestures. A user can provide a gesture to effectuate a desired rotation of an image. In some implementations, a user might provide a rotation gesture (i.e., a circular pattern) to cause an in-plane image rotation or a stroke gesture (i.e., a straight line pattern) to cause an out-of-plane image rotation. Using intuitive gestures, such as touch gestures, the user can control the direction and axis of rotation as well as the amount of rotation, for example, to accomplish a desired rotation of an image.

Abstract: A depth processing apparatus includes a depth buffer, an early depth processing circuit, a post depth processing circuit, and a depth processing controller. The depth buffer stores depth information of a plurality of pixels of a screen space. The early depth processing circuit performs early depth processing based on at least a portion of the depth information before a pixel shading stage. The post depth processing circuit performs post depth processing based on at least a portion of the depth information after the pixel shading stage. The depth processing controller manages a plurality of dependency indication values corresponding to a plurality of sub-regions in the screen space, respectively, and configured to control a first pixel for undergoing at least one of the early depth processing and the post depth processing by referring a first dependency indication value of a first sub-region in which the first pixel is located.

Abstract: Configurations are disclosed for presenting virtual reality and augmented reality experiences to users. The system may comprise an image-generating source to provide one or more frames of image data in a time-sequential manner, a light modulator configured to transmit light associated with the one or more frames of image data, a substrate to direct image information to a user's eye, wherein the substrate houses a plurality of reflectors, a first reflector of the plurality of reflectors to reflect transmitted light associated with a first frame of image data at a first angle to the user's eye, and a second reflector to reflect transmitted light associated with a second frame of the image data at a second angle to the user's eye.

Abstract: The display device includes an image display unit including pixels each including first to third sub-pixels and a fourth sub-pixel for displaying an additional color component according to an amount of lighting of a self-emitting element; a conversion processing unit that performs, for all of pixels, an image analysis on first color information for display at a predetermined pixel, and if a predicted value of power consumption as a total amount of lighting of self-emitting elements is above a limit, outputs a second input signal through a color conversion process on a first input signal including the first color information at a color conversion rate associated with the predicted value; and a fourth sub-pixel signal processing unit that outputs, to the image display unit, a third input signal including third color information with converted red, green, blue, and additional color components.

Abstract: A geospatially accurate 3D model of a building or collection of buildings is used to communicate any type of geo-specific information by way of uniquely recognizable visual or non-visual highlighting such as color or texture coded building visualizations on rooftops or other objects within the 3D model.

Abstract: Systems and methods for rendering an image of a selected garment on a photograph containing a selected individual are disclosed. A computer-implemented method includes: analyzing and tagging, by a computing device, a plurality of photographs stored in a repository; receiving, by the computing device, an indication of a selected garment and a selected individual; determining, by the computing device, a selected photograph from the plurality of photographs based on at least one of: appropriateness of outfit; appropriateness of environment; and usage patterns; generating, by the computing device, an augmented photograph by superimposing an image of the selected garment on the selected photograph; and transmitting, by the computing device, the augmented photograph to a client device.

Abstract: The present disclosure relates to a method and a device for transmitting an image, which improve display effect of the image. The method includes receiving an image with a first resolution from a source terminal; sending a request for obtaining the image to a server according to an identifier of the image; and receiving the image with a second resolution from the server, wherein the second resolution is higher than the first resolution.

Abstract: Illustrative embodiments of methods, machine-readable media, and computing devices that provide content-aware image resizing using superpixels are disclosed. In some embodiments, a method may include segmenting a machine-readable image file into a plurality of superpixels, where each of the plurality of superpixels corresponds to a plurality of pixels of the machine-readable image file. The method may also include selecting a target region in the machine-readable image file, where the target region includes the pixels corresponding to a seam of superpixels extending across a dimension of the machine-readable image file. The method may further include selecting a seam of pixels in the target region, where the seam of pixels extends across the dimension of the machine-readable image file, and resizing the machine-readable image file by removing or augmenting the seam of pixels.

Abstract: Rendering techniques are disclosed for displays capable of adjusting/changing the angle of individual pixels (or pixel groups), referred to herein as textured displays. The textured displays may be capable of creating on demand textures which may be used to simulate the surface of an object in a scene. The rendering techniques may be used to improve upon the realism of rendered scenes/objects and they may provide users with a unique rendering experience whereby the textured display physically changes to mimic textures of the rendered scenes/objects. This can be achieved by sending geometric data, such as surface normal information, to individual pixels of the textured display. Other factors may be considered when adjusting the angle of individual pixels of the textured display, such as whether the user is experiencing too much glare.

Abstract: The invention relates to a computer implemented method for controlling the display of a tile image on a display of the computer device, the method comprising: storing in a computer memory at the computer device, image texture data comprising a plurality of sets of predefined masks, each set of predefined masks for forming a respective tile image; selecting at random a tile image for display from a plurality of tile images; determining a location of each mask in the set of predefined masks for forming the selected tile image, in the image texture data; and supplying an indication of said location to a shader program executed on the computer device to control the shader program to use the set of predefined masks to form the selected tile image on said display.

Abstract: There is provided an image processing apparatus including an edge detection part that detects an edge of a subject on an input image, a luminance change determination part that determines whether a luminance value in a vicinity of the edge in the input image is increased or decreased in a predetermined direction, and a contour supplement part that supplements a contour to the edge in the input image, the contour having the luminance value changed in a time direction depending on a result of the determination.

Abstract: A method for encoding information includes specifying a digital value and providing a symbol (28, 70, 80, 90, 100) comprising a plurality of polygons (72, 82, 92, 94, 102) meeting at a common vertex (74, 84, 96, 98, 104) and having different, respective colors selected so as to encode the specified digital value.

Abstract: A method for sharing content with other HMDs includes rendering content of a virtual environment scene on a display screen of a head-mounted display associated with a first user. The display screen rendering the virtual environment scene represents a virtual reality space of the first user. A request to share the virtual reality space of the first user is detected. The request targets a second user. In response to detecting acceptance of the request to share, the virtual reality space of the first user is shared with the second user. The sharing allows synchronizing the virtual environment scene rendered on the head mounted display of the first and the second users.

Abstract: A method is provided for markerless injection of content into an augmented reality scene by use of a mobile device. Through the mobile device, a camera feed of a scene is acquired, which includes a flat surface. A key frame of the flat surface is selected from the feed. After determining that the flat surface in the key frame meets a predetermined level of feature richness, digital content is injected by superimposing text, graphics, video content over at least a part of the key frame. The digital content can be viewed and interacted with by the user of the mobile device. In one embodiment, the digital content is an advertisement.

Abstract: Configurations are disclosed for presenting virtual reality and augmented reality experiences to users. The system may comprise an image-generating source to provide one or more frames of image data in a time-sequential manner, a light modulator configured to transmit light associated with the one or more frames of image data, a substrate to direct image information to a user's eye, wherein the substrate houses a plurality of reflectors, a first reflector of the plurality of reflectors to reflect transmitted light associated with a first frame of image data at a first angle to the user's eye, and a second reflector to reflect transmitted light associated with a second frame of the image data at a second angle to the user's eye.

Abstract: A system includes a computing device that includes a memory configured to store instructions. The system also includes a processor to execute the instructions to perform operations that include receiving data representing features of a first font and data representing features of a second font. The first font and the second font are capable of representing one or more glyphs. Operations also include receiving survey-based data representing the similarity between the first and second fonts, and, training a machine learning system using the features of the first font, the features of the second font and the survey-based data that represents the similarity between the first and second fonts.

Abstract: A method comprising the steps of: displaying primary data having a first sensitivity level on a first display screen that is operatively coupled to a first computer; capturing an image of the first display screen with an image capture device that is operatively coupled to a second computer that is communicatively isolated from the first computer such that no data is shared between the first and second computers; executing with the second computer a display recognition and characterization algorithm to recognize the primary data based only on the captured image of the first display screen; and augmenting the primary data by displaying secondary data on a second display, wherein the secondary data is related to, and has a higher sensitivity level than, the primary data.