Abstract: A conversion system for a tiltrotor aircraft may be configured to control tilting of a pylon assembly relative to a wing of the aircraft. The system may include a means for generating asymmetric thrust with a propulsion rotor carried by the pylon assembly to generate a first torque on the pylon assembly in a first direction. The system may include a brake mechanism to selectively resist the first torque on the pylon assembly by applying a second torque to the pylon assembly in a second direction opposite the first direction. The rotor (via asymmetric thrust generated by the rotor) and the brake mechanism are coordinated to work against each other to control the tilt rate and angle of the pylon assembly during conversion between flight modes of the tiltrotor aircraft. Other aspects of the present technology include methods of tilting rotors of tiltrotor aircraft using asymmetric thrust and brake mechanisms.

Abstract: A system for optically recognizing, interpreting, and digitizing human readable instruments, annunciators, and controls includes an image acquisition sensor operable to capture images of at least one of the instruments, annunciators, and controls; and a logic processing unit operable to decode the images captured by the image acquisition sensor and interpret the decoded images to determine a state of the at least one of the instruments, annunciators, and controls.

Abstract: A motion capture environment includes at least one sensor-tracker for tracking a location of a tracked object within the motion capture environment and one or more computers collectively operable to generate a virtual reality environment including a virtual control panel having a virtual control that, when actuated, effects a predetermined result in the virtual reality environment; determine a virtual location of the tracked object within the virtual reality environment; and determine when the virtual location of the tracked object coincides with the location of the virtual control to actuate the virtual control. The motion capture environment further includes a display device for displaying the virtual reality environment to an actor within the motion capture environment.

Abstract: A motion capture environment includes a plurality of sensor-trackers for tracking physical locations of a plurality of tracked objects relating to a first simulation within the motion capture environment and for tracking physical locations of a plurality of tracked objects relating to a second simulation, which is different from the first simulation, within the motion capture environment and one or more computers collectively operable to generate a first virtual reality environment corresponding to the first simulation and a second virtual reality environment corresponding to the second simulation.

Abstract: A system includes an analysis system for performing an analysis and a motion capture environment interfaced with the analysis system. The motion capture system includes at least one sensor-tracker for tracking a location of a tracked object within the motion capture environment and one or more computers collectively operable to generate a virtual reality environment corresponding to the analysis.

Abstract: A system for optically recognizing, interpreting, and digitizing human readable instruments, annunciators, and controls includes an image acquisition sensor operable to capture images of at least one of the instruments, annunciators, and controls; and a logic processing unit operable to decode the images captured by the image acquisition sensor and interpret the decoded images to determine a state of the at least one of the instruments, annunciators, and controls.

Abstract: A collaborative virtual reality system includes a first motion capture system and a second motion capture system. The first motion capture system and the second motion capture system configured to interact over a network to produce a single virtual reality environment.

Abstract: A system includes an analysis system for performing an analysis and a motion capture environment interfaced with the analysis system. The motion capture system includes at least one sensor-tracker for tracking a location of a tracked object within the motion capture environment and one or more computers collectively operable to generate a virtual reality environment corresponding to the analysis.

Abstract: A motion capture environment includes a plurality of sensor-trackers for tracking physical locations of a plurality of tracked objects relating to a first simulation within the motion capture environment and for tracking physical locations of a plurality of tracked objects relating to a second simulation, which is different from the first simulation, within the motion capture environment and one or more computers collectively operable to generate a first virtual reality environment corresponding to the first simulation and a second virtual reality environment corresponding to the second simulation.

Abstract: A motion capture environment includes at least one sensor-tracker for tracking a location of a tracked object within the motion capture environment and one or more computers collectively operable to generate a virtual reality environment including a virtual control panel having a virtual control that, when actuated, effects a predetermined result in the virtual reality environment; determine a virtual location of the tracked object within the virtual reality environment; and determine when the virtual location of the tracked object coincides with the location of the virtual control to actuate the virtual control. The motion capture environment further includes a display device for displaying the virtual reality environment to an actor within the motion capture environment.