Abstract: A motion capture system includes motion capture cameras positioned in various locations and orientations with respect to a motion capture volume. The motion capture system includes a host computing device that is operatively coupled with the motion capture cameras. The host computing device remotely controls operation of the motion capture cameras to record movement within the motion capture volume. At least one of the motion capture cameras includes a user-interface that is operable by a user to remotely initiate a control operation of the host computing device.

Abstract: A motion capture system includes motion capture cameras positioned in various locations and orientations with respect to a motion capture volume. The motion capture system includes a host computing device that is operatively coupled with the motion capture cameras. The host computing device remotely controls operation of the motion capture cameras to record movement within the motion capture volume. At least one of the motion capture cameras includes a user-interface that is operable by a user to remotely initiate a control operation of the host computing device.

Abstract: A motion-capture system is provided. The motion-capture system includes a host computing system and a plurality of motion-capture cameras that are operatively coupled with the host computing system. Each of the motion-capture cameras is disposed in a different location and orientation relative to a motion-capture space and includes a marker-tracking optical filter to provide a marker-tracking mode and thereby relatively enhance light from markers on a moving body in the motion-capture space. One or more of the motion-capture cameras is remotely controllable to selectively interchange the marker-tracking optical filter with a scene-view optical component, so as to selectively transition the motion-capture camera between the marker-tracking mode and a scene mode, in which light from the markers is less enhanced than in the marker-tracking mode.

Abstract: A system for controlling a computing device. The system includes, a plurality of sensed locations corresponding to a sensed object, a sensing apparatus to sense a position of the sensed locations relative to the sensing apparatus, and a motion control engine executable on a computing device, in response to the motion control engine receiving position data indicative of the position of the sensed locations from the sensing apparatus, the motion control engine to generate an adjusted position based on the position data, wherein the adjusted position is offset from the position of the sensed locations, and wherein the adjusted position is fixed relative to the position of the sensed locations.

Abstract: A system for controlling a computer is provided. The system includes a position sensing apparatus configured to be disposed in operative proximity to a sensed object and thereby obtain positional data pertaining to the sensed object, and engine software configured to receive the positional data and process the positional data to determine an assessed actual position of the sensed object relative to a neutral reference position and output control commands based on the assessed actual position of the sensed object, the control commands configured to control presentation of a rendered scene, the control commands being scaled relative to changes in the assessed actual position of the sensed object, the scaling of the changes in assessed actual position of the sensed object causing presentation of the rendered scene to be skewed; wherein the engine software is further configured to automatically correct the skewing of the rendered scene by modifying the control commands.

Abstract: A motion capture system includes motion capture cameras positioned in various locations and orientations with respect to a motion capture volume. The motion capture system includes a host computing device that is operatively coupled with the motion capture cameras. The host computing device remotely controls operation of the motion capture cameras to record movement within the motion capture volume. At least one of the motion capture cameras includes a user-interface that is operable by a user to remotely initiate a control operation of the host computing device.

Abstract: A system and method for controlling operation of a computer based on movements and/or position of a movable object. The system includes a sensing apparatus configured to obtain positional data based on movements of a sensed object. Engine software may process the positional data and generate control commands to produce a virtual position in an application running on the computer. A visual comparator is operatively coupled with the engine software and configured to display an actual indicator and a virtual indicator to provide a visual comparison between the virtual position and the actual position of the sensed object.

Abstract: A motion-capture system is provided. The motion-capture system includes a host computing system and a plurality of motion-capture cameras that are operatively coupled with the host computing system. Each of the motion-capture cameras is disposed in a different location and orientation relative to a motion-capture space and includes a marker-tracking optical filter to provide a marker-tracking mode and thereby relatively enhance light from markers on a moving body in the motion-capture space. One or more of the motion-capture cameras is remotely controllable to selectively interchange the marker-tracking optical filter with a scene-view optical component, so as to selectively transition the motion-capture camera between the marker-tracking mode and a scene mode, in which light from the markers is less enhanced than in the marker-tracking mode.

Abstract: A headset system is provided. The headset system includes a speaker assembly to produce sound based on an audio signal, an attachment portion configured to orient the at least one speaker assembly proximate to an ear of a user such that the sound is directed substantially toward the ear of the user, and a mounting interface configured to interchangeably receive one of a plurality of accessory devices, wherein the plurality of accessory devices each have a mechanical coupling configuration compatible with the mounting interface.

Abstract: A system for controlling a computing device. The system includes, a plurality of sensed locations corresponding to a sensed object, a sensing apparatus to sense a position of the sensed locations relative to the sensing apparatus, and a motion control engine executable on a computing device, in response to the motion control engine receiving position data indicative of the position of the sensed locations from the sensing apparatus, the motion control engine to generate an adjusted position based on the position data, wherein the adjusted position is offset from the position of the sensed locations, and wherein the adjusted position is fixed relative to the position of the sensed locations.

Abstract: A system for controlling operation of a computer.

Abstract: A system for controlling a computer is provided. The system includes a position sensing apparatus configured to be disposed in operative proximity to a sensed object and thereby obtain positional data pertaining to the sensed object, and engine software configured to receive the positional data and process the positional data to determine an assessed actual position of the sensed object relative to a neutral reference position and output control commands based on the assessed actual position of the sensed object, the control commands configured to control presentation of a rendered scene, the control commands being scaled relative to changes in the assessed actual position of the sensed object, the scaling of the changes in assessed actual position of the sensed object causing presentation of the rendered scene to be skewed; wherein the engine software is further configured to automatically correct the skewing of the rendered scene by modifying the control commands.