Abstract: A system, method, and computer program product are provided for producing images for a near-eye light field display. Defect information for a first pixel of a microdisplay of a near-eye light field display device is received and a second pixel of the microdisplay is identified, where the first pixel and the second pixel contribute to a portion of the retinal image. Based on the defect information, a value of the second pixel within an array of elemental images is modified to produce a corrected array of elemental images for display by the microdisplay. An optical apparatus of the near-eye light field display device may, for example, be a microlens of a microlens array positioned between a viewer and an emissive microdisplay or a pinlight of a pinlight array positioned behind a transmissive microdisplay relative to the viewer.

Abstract: A system, method, and computer program product that displays a light field to simulate a reflected scene. The method includes the operations of receiving a scene representing an exterior viewpoint relative to an observer positioned in a vehicle, determining a pre-filtered image that simulates a reflection of the scene, where the pre-filtered image represents a light field and corresponds to a target image that simulates a mirror. The pre-filtered image is displayed as the light field to produce the target image.

Abstract: A system, method, and computer program product that displays a light field to simulate an electronic viewfinder of an image capture device. The method includes the operations of receiving a scene corresponding to the electronic viewfinder and determining a pre-filtered image that simulates the scene, where the pre-filtered image represents a light field and corresponds to a target image. The pre-filtered image is displayed as the light field to produce the target image.

Abstract: A system, method, and computer program product are provided for computing indirect lighting in a cloud network. In operation, one or more scenes for rendering are identified. Further, indirect lighting associated with the one or more scenes is identified. Additionally, computation associated with the indirect lighting is performed in a cloud network utilizing at least one of a voxel-based algorithm, a photon-based algorithm, or an irradiance-map-based algorithm.

Abstract: A system, method, and computer program product are provided for performing shadowing utilizing shadow maps and ray tracing. In operation, one or more shadow maps are rendered for at least one light source. Additionally, low confidence pixels associated with the one or more shadow maps are determined. Furthermore, shadow rays associated with the low confidence pixels are traced.

Abstract: A system, method, and computer program product are provided for reducing noise in an image using depth-based on sweeping over image samples. In use, each noisy pixel of an image having noise is identified. Additionally, for each noisy pixel, at least one sample included in each of a plurality of neighboring pixels to the noisy pixel is identified. Furthermore, the samples are swept over at least partially in a depth-based order to identify a value for the noisy pixel that reduces the noise.

Abstract: A system, method, and computer program product are provided for tiled deferred shading. In operation, a plurality of photons associated with at least one scene are identified. Further, a plurality of screen-space tiles associated with the at least one scene are identified. Additionally, each of the plurality of screen-space tiles capable of being affected by a projection of an effect sphere for each of the plurality of photons are identified. Furthermore, at least a subset of photons associated with each of the screen-space tiles from which to compute shading are selected. Moreover, shading for the at least one scene is computed utilizing the selected at least a subset of photons.

Abstract: In embodiments of the invention, an apparatus may include a display comprising a plurality of pixels. The apparatus may further include a computer system coupled with the display and operable to instruct the display to display a deconvolved image corresponding to a target image, wherein when the display displays the deconvolved image while located within a near-eye range of an observer, the target image may be perceived in focus by the observer.

Abstract: In embodiments of the invention, an apparatus may include a display comprising a plurality of pixels and a computer system coupled with the display and operable to instruct the display to display images. The apparatus may further include an SLM array located adjacent to the display and comprising a plurality of SLMs, wherein the SLM array is operable to produce a light field by altering light emitted by the display to simulate an object that is in focus to an observer while the display and the SLM array are located within a near-eye range of the observer.

Abstract: In embodiments of the invention, an apparatus may include a display comprising a plurality of pixels and a computer system coupled with the display and operable to instruct the display to display images. The apparatus may further include a microlens array located adjacent to the display and comprising a plurality of microlenses, wherein the microlens array is operable to produce a light field by altering light emitted by the display to simulate an object that is in focus to an observer while the display and the microlens array are located within a near-eye range of the observer.

Abstract: A system, process, and computer program product are provided for sampling a hierarchical depth map. An approach for sampling the hierarchical depth map includes the steps of generating a hierarchical depth map and reading a value associated with a sample pixel from a target level of the hierarchical depth map based on a difference between the sample pixel and a target pixel. The hierarchical depth map includes at least two levels.

Abstract: Systems and methods for performing optical image processing via a transparent display are disclosed. In one example approach, a method comprises determining a position of incident light on a see-through display device, determining a direction of the incident light relative to the see-through display device, and modulating, with the see-through display device, a transmission of the incident light through the see-through display device based on the determined position and determined direction of the incident light.

Abstract: A system, method, and computer program product are provided for performing a scan operation on a sequence of single-bit values using a parallel processing architecture. In operation, a scan operation instruction is received. Additionally, in response to the scan operation instruction, a scan operation is performed on a sequence of single-bit values using a parallel processor architecture with a plurality of processing elements.

Abstract: A system, method, and computer program product are provided for modifying signals of a three-dimensional graphics application program based on a tracking algorithm. In operation, a plurality of signals are received from a three-dimensional graphics application program. Additionally, the signals, or a derivative thereof, are modified based on an algorithm that tracks at least a portion of an upper body of a person. Furthermore, the modified signals are output.

Abstract: A method, computer-usable medium and a system for varying an incoming light field are disclosed. Embodiments provide mechanisms for performing image processing on an incoming light field using a spatial light modulator which is adjusted based upon characteristics of the incoming light field. The spatial light modulator may be positioned between the viewed scene and the eye, and therefore, may be semi-transparent. The image processing may consist of tone mapping, color enhancement, beautification, edge enhancement, spectral separation of colors, spectral separation of metamers, object emphasis, other image processing, or some combination thereof. Additionally, embodiments compensate for parallax errors by adjusting the spatial light modulator based upon the position of an observer with respect to the spatial light modulator.

Abstract: A system and method are provided for approximating a diffusion profile utilizing gathered lighting information associated with an occluded portion of an object. In use, the present technique gathers information associated with an occluded portion of an object that is illuminated with a two-dimensional pattern of light including an edge which defines an illuminated portion and the occluded portion of the object. To this end, a diffusion profile of the object is approximated, utilizing such information.

Abstract: A system, method, and computer program product are provided for spatial hierarchy traversal. In operation, a spatial hierarchy is traversed for ray tracing. Additionally, a number of nodes traversed in each of a plurality of levels of the spatial hierarchy is stored.

Abstract: A ray tracing system, method, and computer program product are provided for simultaneously traversing a hierarchy of rays and a hierarchy of objects. In operation, a hierarchy of rays and a hierarchy of objects are simultaneously traversed. Additionally, ray tracing is performed, based on the traversal.

Abstract: A system, method, and computer program product are provided for organizing a plurality of rays. In operation, a plurality of rays is identified. Additionally, the rays are organized, utilizing a bounding volume.

Abstract: A system, method, and computer program product are provided for reducing noise in an image using depth-based on sweeping over image samples. In use, each noisy pixel of an image having noise is identified. Additionally, for each noisy pixel, at least one sample included in each of a plurality of neighboring pixels to the noisy pixel is identified. Furthermore, the samples are swept over at least partially in a depth-based order to identify a value for the noisy pixel that reduces the noise.