Abstract: Described herein is a graphics processor comprising a system interconnect and a graphics processor cluster coupled with the system interconnect. The graphics processor cluster includes circuitry configurable to generate per-frame neural representations of a multi-view video via incremental training and transferal of weights.

Abstract: Described herein is a graphics processor comprising a system interconnect and a graphics processor cluster coupled with the system interconnect. The graphics processor cluster includes circuitry configurable to generate per-frame neural representations of a multi-view video via incremental training and transferal of weights.

Abstract: Methods, apparatus, systems, and articles of manufacture are disclosed to provide remote telepresence communication. At least one non-transitory machine-readable medium comprises instructions that, when executed, cause a processor to identify features from a plurality of images, the plurality of images representing a first user and a second user, create a first representation of the first user, a second representation of the second user, the representations created using the plurality of images, the representations representing the respective users at specified distances and specified perspectives from a viewer, and construct a first image, the first image including the second model at a specified location within a shared environment, the first image to be presented on a first display.

Abstract: Thin, multi-focal plane, augmented reality eyewear are disclosed. An example lens structure includes a two-layer waveguide including a first waveguide and a second waveguide. The two-layer waveguide produces a virtual object based on light from an image source. The two-layer waveguide causes the virtual object to appear at a first virtual object focal plane. The first waveguide propagates more of the light in a first wavelength range than in a second wavelength range. The second waveguide propagates more of the light in the second wavelength range than in the first wavelength range. The first wavelength range is associated with longer wavelengths than the second wavelength range. The lens structure further includes an optical lens to cause the virtual object to appear at a second virtual object focal plane associated with a shorter apparent distance from a user than the first virtual object focal plane.

Abstract: Thin, multi-focal plane, augmented reality eyewear are disclosed. An example lens structure includes a two-layer waveguide including a first waveguide and a second waveguide. The two-layer waveguide produces a virtual object based on light from an image source. The two-layer waveguide causes the virtual object to appear at a first virtual object focal plane. The first waveguide propagates more of the light in a first wavelength range than in a second wavelength range. The second waveguide propagates more of the light in the second wavelength range than in the first wavelength range. The first wavelength range is associated with longer wavelengths than the second wavelength range. The lens structure further includes an optical lens to cause the virtual object to appear at a second virtual object focal plane associated with a shorter apparent distance from a user than the first virtual object focal plane.

Abstract: Disclosed herein is display stacks for virtual reality (VR) displays arranged to present an image where a focal point of the image is presented in higher resolution than a periphery around the focal point. The disclosure provides systems and methods for presenting an image comprising a high resolution having a smaller field of view than that with which a lower resolution image is presented around a periphery of the high resolution image.

Abstract: The present disclosure is directed to systems and methods for providing an augmented reality system having one or more optical structures capable of resolving virtual objects on one or more virtual object focal planes while providing a sufficient level of transmittivity and optical correction to simultaneously resolve real-world, physical, objects. The lens structures include a plurality of waveguide layers including waveguide layers demonstrating red-green sensitivity and waveguide layers demonstrating blue-green sensitivity. One or more plano-concave lenses may be used to draw virtual objects from a relatively distant first virtual object focal plane to a relatively closer second virtual object focal plane. One or more plano-convex lenses may be used to cause physical objects to appear at a distance from the augmented reality eyewear system approximately equal to the second virtual object focal plane.

Abstract: Disclosed herein is display stacks for virtual reality (VR) displays arranged to present an image where a focal point of the image is presented in higher resolution than a periphery around the focal point. The disclosure provides systems and methods for presenting an image comprising a high resolution having a smaller field of view than that with which a lower resolution image is presented around a periphery of the high resolution image.

Abstract: The present disclosure is directed to systems and methods for providing an augmented reality system having one or more optical structures capable of resolving virtual objects on one or more virtual object focal planes while providing a sufficient level of transmittivity and optical correction to simultaneously resolve real-world, physical, objects. The lens structures include a plurality of waveguide layers including waveguide layers demonstrating red-green sensitivity and waveguide layers demonstrating blue-green sensitivity. One or more plano-concave lenses may be used to draw virtual objects from a relatively distant first virtual object focal plane to a relatively closer second virtual object focal plane. One or more plano-convex lenses may be used to cause physical objects to appear at a distance from the augmented reality eyewear system approximately equal to the second virtual object focal plane.

Abstract: An approach is provided for providing augmented reality based on tracking. Information, including location information, orientation information, or a combination thereof of a device is determined. A representation of a location indicated based, at least in part, on the information is determined. One or more items are selected to associate with one or more points within the representation. Display information is determined to be generated, the display information including the one or more items overlaid on the representation based, at least in part, on the one or more points.

Abstract: An apparatus for enabling provision of a localized virtual reality environment may include at least one processor and at least one memory including computer program code. The at least one memory and the computer program code may be configured, with the processor, to cause the apparatus to perform at least receiving information indicative of a current location of a mobile terminal, receiving information indicative of an orientation of the mobile terminal with respect to the current location, causing a stored image including a panoramic view of the current location to be displayed at the mobile terminal based on the orientation, and enabling provision of a virtual object on the panoramic view. A corresponding method and computer program product are also provided.

Abstract: Described is a system for conveying the spatial location of an object with respect to a user's current location utilizing a video rendering following an automatically generated path from the user's location to the location of the object of interest initiated from the user's current perspective. The system comprises a display device; a virtual three-dimensional model of the user's environment; a visualization creation module; a route planner; and a video rendering following an automatically generated path from the user's location to the location of the object of interest utilizing the visualization creation module, wherein the video rendering displayed on the display device is from a first-person view. Also described is a method of utilizing the system.

Abstract: A multi-stage method of visual object detection is disclosed. The method was originally designed to detect humans in specific poses, but is applicable to generic detection of any object. A first stage comprises acts of searching for members of a predetermined general-class of objects (such as humans) in an image using a cognitive swarm, detecting members of the general-class of objects in the image, and selecting regions of the image containing detected members of the general-class of objects. A second stage comprises acts of searching for members of a predetermined specific-class of objects (such as humans in a certain pose) within the selected regions of the image using a cognitive swarm, detecting members of the specific-class of objects within the selected regions of the image, and outputting the locations of detected objects to an operator display and optionally to an automatic response system.

Abstract: A method comprising determining that light reflected by a display obstructs view of the display, and causing compensation for reflected light based on the determination that light reflected by a display obstructs view of the display is disclosed.

Abstract: An approach is provided for providing augmented reality based on tracking. Information, including location information, orientation information, or a combination thereof of a device is determined. A representation of a location indicated based, at least in part, on the information is determined. One or more items are selected to associate with one or more points within the representation. Display information is determined to be generated, the display information including the one or more items overlaid on the representation based, at least in part, on the one or more points.

Abstract: An apparatus for enabling provision of a localized virtual reality environment may include at least one processor and at least one memory including computer program code. The at least one memory and the computer program code may be configured, with the processor, to cause the apparatus to perform at least receiving information indicative of a current location of a mobile terminal, receiving information indicative of an orientation of the mobile terminal with respect to the current location, causing a stored image including a panoramic view of the current location to be displayed at the mobile terminal based on the orientation, and enabling provision of a virtual object on the panoramic view. A corresponding method and computer program product are also provided.

Abstract: The present invention is generally related to image enhancement and augmented reality (“AR”). More specifically, this invention presents a method and an apparatus for static image enhancement and the use of an optical display and sensing technologies to superimpose, in real time, graphical information upon a user's magnified view of the real world.

Abstract: A method and apparatus for positioning labels on a graphical display, which, in an illustrative embodiment, can include labels for aircraft icons in an air traffic control system's computer graphics display. The present invention advantageously identifies clusters of overlapping labels and objects, and calculates non-overlapping label positions on a cluster by cluster basis. In another aspect of the present invention, the movement of labels is accomplished in a smooth, incremental fashion so that cognitive distraction to the user of the graphical display terminal is kept to a minimum.

Abstract: The present invention allows a broadcaster 300a to encode a plurality of data, a portion of which may be from databases 302a, including spatial content and tracking data into a signal, the signal is sent to an overlay construction module 304a. Augmentation layers 306a, provided by users 308a are conveyed to the overlay construction module 304, where the signals are separably merged with the broadcast signal to create an augmented signal, which is transmitted, optionally via satellite 310a, to users 308a. The users 308a receive the augmented signal and display only the layers of interest to them. Thus each user may select a unique overlay combination, and experience individualized programming that more closely comports with that user's tastes.