Abstract: Various implementations disclosed herein include devices, systems, and methods that modify a stereoscopic scene using a user-positioned stereo depth marker. In one example, the marker may be used to position content (e.g., computer-generated, virtual content, 3D objects, etc.) on top of/within the stereo scene by providing info about stereo depth, camera height, where features sit in depth in each eye's image, etc. In another example, the marker may additionally or alternatively be used to associate one or more objects, such as a tree depicted within the scene, with the background or foreground aspects/plates, which may then be rendered differently in providing the altered stereo content.

Abstract: A user interface through which information is proactively provided utilizes visual cues indicative of the relevance of the information that is being proactively provided. Such visual cues include sizing, color, intensity, movement, and other like visual attributes. A single discrete visual element proactively presents information to the user. The user is provided with the opportunity to define discrete events, whereby information associated with such events is presented through other discrete elements. The physical orientation of such discrete elements indicates relationships between elements. Ranking functionality identifies more immediately relevant information and the rankings of related elements are increased based upon other, contextual information with which such information is associated, and on which the importance of such information is based.

Abstract: A user interface through which information is proactively provided utilizes visual cues indicative of the relevance of the information that is being proactively provided. Such visual cues include sizing, color, intensity, movement, and other like visual attributes. A single discrete visual element proactively presents information to the user. The user is provided with the opportunity to define discrete events, whereby information associated with such events is presented through other discrete elements. The physical orientation of such discrete elements indicates relationships between elements. Ranking functionality identifies more immediately relevant information and the rankings of related elements are increased based upon other, contextual information with which such information is associated, and on which the importance of such information is based.

Abstract: A user interface through which information is proactively provided utilizes visual cues indicative of the relevance of the information that is being proactively provided. Such visual cues include sizing, color, intensity, movement, and other like visual attributes. A single discrete visual element proactively presents information to the user. The user is provided with the opportunity to define discrete events, whereby information associated with such events is presented through other discrete elements. The physical orientation of such discrete elements indicates relationships between elements. Ranking functionality identifies more immediately relevant information and the rankings of related elements are increased based upon other, contextual information with which such information is associated, and on which the importance of such information is based.

Abstract: A user interface through which information is proactively provided utilizes visual cues indicative of the relevance of the information that is being proactively provided. Such visual cues include sizing, color, intensity, movement, and other like visual attributes. A single discrete visual element proactively presents information to the user. The user is provided with the opportunity to define discrete events, whereby information associated with such events is presented through other discrete elements. The physical orientation of such discrete elements indicates relationships between elements. Ranking functionality identifies more immediately relevant information and the rankings of related elements are increased based upon other, contextual information with which such information is associated, and on which the importance of such information is based.

Abstract: A user interface through which information is proactively provided utilizes visual cues indicative of the relevance of the information that is being proactively provided. Such visual cues include sizing, color, intensity, movement, and other like visual attributes. A single discrete visual element proactively presents information to the user. The user is provided with the opportunity to define discrete events, whereby information associated with such events is presented through other discrete elements. The physical orientation of such discrete elements indicates relationships between elements. Ranking functionality identifies more immediately relevant information and the rankings of related elements are increased based upon other, contextual information with which such information is associated, and on which the importance of such information is based.

Abstract: A method for controlling presentation of three dimensional (3D) animation includes rendering a 3D animation sequence including a 3D vertex-baked model which is derived from a 3D animation file including vertex data of every vertex for every 3D image frame in the 3D animation sequence. The 3D vertex-baked model includes a control surface that provides a best-fit 3D shape to vertices of the 3D vertex-baked model.

Abstract: A method for controlling presentation of three dimensional (3D) animation includes rendering a 3D animation sequence including a 3D vertex-baked model which is derived from a 3D animation file including vertex data of every vertex for every 3D image frame in the 3D animation sequence. The 3D vertex-baked model includes a control surface that provides a best-fit 3D shape to vertices of the 3D vertex-baked model. The method further includes receiving a motion control input, and if the motion control input is received during an augmentation portion of the 3D animation sequence, deviating from a default posture of the control surface in accordance with the motion control input.

Abstract: Disclosed herein are systems and methods for controlling a computing environment with one or more gestures by sizing a virtual screen centered on a user, and by adapting the response of the computing environment to gestures made by a user and modes of use exhibited by a user. The virtual screen may be sized using depth, aspects of the user such as height and/or user profile information such as age and ability. Modes of use by a user may also be considered in determining the size of the virtual screen and the control of the system, the modes being based on profile information and/or information from a capture device.