Abstract: In some examples, a computing device processes depth images to capture an interaction of an object relative to an interaction plane.

Abstract: In some examples, a computing device processes depth images to capture an interaction of an object relative to an interaction plane.

Abstract: An example device in accordance with an aspect of the present disclosure includes a launch engine and an offload engine. The launch engine is to request a resource predictor based on analysis of collected resource usage information. The offload engine is to compare resource availability at the device to predicted resource usage indicated in the resource predictor, and offload at least a portion of resource usage.

Abstract: A method of determining context-appropriate behavior for mobile devices.

Abstract: A method of determining context-appropriate behavior for mobile devices 5.

Abstract: The present invention provides a method (500) executed on a processor for providing object information about an object in proximity to a display screen. The method includes the step of determining whether an at least first object is located within a proximal distance of the first surface of the display screen based on information provided by a depth camera (step 510). The method also includes the step of determining whether the at least first object has physically contacted a first surface of the display screen based on information provided by a physical contact sensing component (step 520). The information about (1) the proximal distance of the at least first object from the screen and (2) whether the at least first object has physically contacted the display surface of the screen to provide proximal event information and based on the information provided, it is determining whether the user interface should be modified (step 560).

Abstract: Video conferencing methods and systems that enable shared content to be displayed in a separate window within a screen or in a separate display are described. In one aspect, a method for establishing a video conference with shared content using a computing device includes capturing images of a first participant through a screen using a camera. The screen is located between the first participant and the camera. The method also includes projecting images of a second participant on the screen to be viewed by the first participant using a projector, and displaying shared content separate from the images of the second participant. The shared content is to be presented in different format than the images of the second participant presented on the screen.

Abstract: An image rendition and capture method includes rendering a first image on a surface using a first set of wavelength ranges of light. While the first image is being rendered, a second image is captured using a second set of wavelength ranges of light but not the first set. The second image is of the surface on which the first image is being rendered.

Abstract: A method of determining whether a video frame meets the design composition requirements associated with a video conference, said method comprising steps performed by a processor of: providing design composition requirements for the video frame, wherein the design composition requirements are available at runtime; analyzing captured video content from a video conference, to determine whether a participant of interest is present in a video frame of the video content; and analyzing the video frame to determine if it meets the design composition requirements for the video conference.

Abstract: Methods and apparatus to direct attention in a video content display are disclosed. An example method to direct attention in a video content display, includes determining a location in a display interface to which attention is to be directed based on video content to be displayed, and modulating with a stimulus, at a frequency such that the stimulus is detectable by human peripheral vision and is less detectable by human foveal vision, a portion of the video content displayed in the location with a stimulus to direct attention to the location.

Abstract: The present invention provides a method (500) executed on a processor for providing object information about an object in proximity to a display screen. The method includes the step of determining whether an at least first object is located within a proximal distance of the first surface of the display screen based on information provided by a depth camera (step 510). The method also includes the step of determining whether the at least first object has physically contacted a first surface of the display screen based on information provided by a physical contact sensing component (step 520). The information about (1) the proximal distance of the at least first object from the screen and (2) whether the at least first object has physically contacted the display surface of the screen to provide proximal event information and based on the information provided, it is determining whether the user interface should be modified (step 560).

Abstract: Video conferencing methods and systems that enable shared content to be displayed in a separate window within a screen or in a separate display are described. In one aspect, a method for establishing a video conference with shared content using a computing device includes capturing images of a first participant through a screen using a camera. The screen is located between the first participant and the camera. The method also includes projecting images of a second participant on the screen to be viewed by the first participant using a projector, and displaying shared content separate from the images of the second participant. The shared content is to be presented in different format than the images of the second participant presented on the screen.

Abstract: Embodiments of the present invention disclose a system and method for providing collaborative workspace viewing for portable electronic devices. According to one embodiment, a first portable electronic device operated by a first user and a second portable electronic device operating by a second user are connected over a network. Furthermore, an image captured by an imaging sensor associated with either the first portable device or the second portable electronic device is displayed on a user interface of both the first portable electronic device and the second portable electronic device. In addition, gesture input received from both the first user and the second user and relating to the captured image is displayed concurrently on both the first portable electronic device and the second portable electronic device.

Abstract: The present invention provides a method of providing feedback to a participant in a video conference, comprising the steps of: establishing a video conferencing session between multiple participants, wherein each participant in the video conferencing session is associated with a video capture device and an audio capture device; and establishing presentation requirements for each participant, wherein the presentation requirements are associated with the video conferencing session and the video capture and audio capture devices associated with each participant, wherein responsive to a failure to meet the presentation requirements, feedback is sent to at least the local participant who has failed to meet the presentation requirements.

Abstract: A method of determining whether a video frame meets the design composition requirements associated with a video conference, said method comprising steps performed by a processor of: providing design composition requirements for the video frame, wherein the design composition requirements are available at runtime; analyzing captured video content from a video conference, to determine whether a participant of interest is present in a video frame of the video content; and analyzing the video frame to determine if it meets the design composition requirements for the video conference.

Abstract: An image rendition and capture method includes rendering a first image on a surface using a first set of wavelength ranges of light. While the first image is being rendered, a second image is captured using a second set of wavelength ranges of light but not the first set. The second image is of the surface on which the first image is being rendered.

Abstract: A method includes generating a first plurality of meshes configured to map a first domain associated with a display surface to a second domain associated with an image capture device configured to capture a first image of the display surface, and generating a second plurality of meshes configured to map the second domain to a third domain associated with a first projector configured to display a second image onto the display surface. A third plurality of meshes is generated using the first plurality of meshes and the second plurality of meshes. The third plurality of meshes is configured to separately map a plurality of color bands between the first domain and the third domain.

Abstract: A support apparatus for a camera and strobe lights includes a mounting plate for holding the camera substantially normal to and at a fixed distance from the photograph area, a set of legs attached to one or more portions of the apparatus providing support and positions for mounting and a set of strobe lights affixed to the legs at known positions relative to the focal plane of the camera and directed towards the photograph area to facilitate acquisition of multiple photographic images for use in one or image processing operations. The support apparatus can be automated through the use of one or more mobile strobe lights slidably coupled to each leg, capable of self-propelled linear motion along the axis of the leg and providing indication of its position along the leg to facilitate acquisition of multiple photographic images and position data for the image processing operations.

Abstract: A graphics system that enhances shape perception. The presently preferred embodiment of the system utilizes the mathematical machinery of parametric texture maps. In general, parametric texture maps allow the graphics system to render surface features of a 3D object in a manner that is direction dependent but without the time consuming and expensive calculations involved in the evaluation of lighting equations on a per pixel basis. A parametric texture map holds a set of parameters that define a surface structure in a manner in which the appearance of the surface structure varies in response to a direction vector. The direction vector may be any user-defined vector including a light source vector or a half-angle vector. The parameters are those of a predetermined equation, the evaluation of which does not involve vector calculations. The equation may take any form including a polynomial equation or a non-polynomial equation. The graphic system renders a polygon with the surface structure using the equation.

Abstract: A graphics system that employs parametric texture maps. The graphics system renders surface features of a 3D object in a manner that is direction dependent but without the time consuming and expensive calculations involved in the evaluation of lighting equations on a per pixel basis. A parametric texture map holds a set of parameters that define a surface structure in a manner in which the appearance of the surface structure varies in response to a direction vector. The direction vector may be any user-defined vector including a light source vector or a half-angle vector. The parameters are those of a predetermined equation, the evaluation of which does not involve vector calculations. The equation may take any form including a polynomial equation or a non-polynomial equation. The graphic system renders a polygon with the surface structure using the equation.