Patent classifications
G09B9/10
Kinesthetic device that simulates flight
A kinesthetic device that simulates flight includes a base unit and a swing unit. The base unit includes a base seat; whereas, the swing unit includes a swing seat, two swing support structures pivoted between the base seat and the swing seat, and a swing actuator used to control the swing positions of the two swing support structures. The two swing support structures are equal in length and parallel to each other. A fixed baseline is formed between two junction points between the two swing support structures and the base seat, a swing baseline is formed between two junction points between the two swing support structures and the swing seat, and the fixed baseline and the swing baseline are equal in length. The two swing support structures, the fixed baseline and the swing baseline form a parallelogram, allowing the swing support structures to swing stably the base seat.
Kinesthetic device that simulates flight
A kinesthetic device that simulates flight includes a base unit and a swing unit. The base unit includes a base seat; whereas, the swing unit includes a swing seat, two swing support structures pivoted between the base seat and the swing seat, and a swing actuator used to control the swing positions of the two swing support structures. The two swing support structures are equal in length and parallel to each other. A fixed baseline is formed between two junction points between the two swing support structures and the base seat, a swing baseline is formed between two junction points between the two swing support structures and the swing seat, and the fixed baseline and the swing baseline are equal in length. The two swing support structures, the fixed baseline and the swing baseline form a parallelogram, allowing the swing support structures to swing stably the base seat.
Kinesthetic Device That Simulates Flight
A kinesthetic device that simulates flight includes a base unit and a swing unit. The base unit includes a base seat; whereas, the swing unit includes a swing seat, two swing support structures pivoted between the base seat and the swing seat, and a swing actuator used to control the swing positions of the two swing support structures. The two swing support structures are equal in length and parallel to each other. A fixed baseline is formed between two junction points between the two swing support structures and the base seat, a swing baseline is formed between two junction points between the two swing support structures and the swing seat, and the fixed baseline and the swing baseline are equal in length. The two swing support structures, the fixed baseline and the swing baseline form a parallelogram, allowing the swing support structures to swing stably the base seat.
Kinesthetic Device That Simulates Flight
A kinesthetic device that simulates flight includes a base unit and a swing unit. The base unit includes a base seat; whereas, the swing unit includes a swing seat, two swing support structures pivoted between the base seat and the swing seat, and a swing actuator used to control the swing positions of the two swing support structures. The two swing support structures are equal in length and parallel to each other. A fixed baseline is formed between two junction points between the two swing support structures and the base seat, a swing baseline is formed between two junction points between the two swing support structures and the swing seat, and the fixed baseline and the swing baseline are equal in length. The two swing support structures, the fixed baseline and the swing baseline form a parallelogram, allowing the swing support structures to swing stably the base seat.
SYSTEMS AND METHODS FOR MEASURING PHYSIOLOGICAL PARAMETERS
A device for detecting physiological parameters is used to detect a degree of user hypoxemia in response to flight conditions; degree of hypoxemia may be used automatically to modify actions by a training device such as a reduced oxygen breathing device or centrifuge and generate feedback or modifications to training profiles for future use. Machine learning processes may be combined with sensor activity to discover relationships between maneuvers, environmental conditions, physiological parameters, and degrees of impairment to develop optimal flight or training plans.
Methods for evaluating human performance in aviation
An aviation performance evaluation methodology that can be implemented in various ways depending on the applications of interest. Baseline standards for expected performance are stored in one or more databases. One database may contain performance parameters and another database may contain baseline standards such as expert gaze data. Real-time actual performance data is acquired using an eye tracker system comprising at least one video camera, at least one infrared light source, and a computer system which receives image data from the video camera(s). More specifically, the actual and expected performance data are input to a computer system that is programmed to analyze the actual performance based on a comparison of the actual and expected performance data. Based on the results of the comparative analysis, context-adjusted inferences can be made regarding performance, adopted strategies, gaze scan quality, alertness or distraction, situational awareness, and workload.
Methods for evaluating human performance in aviation
An aviation performance evaluation methodology that can be implemented in various ways depending on the applications of interest. Baseline standards for expected performance are stored in one or more databases. One database may contain performance parameters and another database may contain baseline standards such as expert gaze data. Real-time actual performance data is acquired using an eye tracker system comprising at least one video camera, at least one infrared light source, and a computer system which receives image data from the video camera(s). More specifically, the actual and expected performance data are input to a computer system that is programmed to analyze the actual performance based on a comparison of the actual and expected performance data. Based on the results of the comparative analysis, context-adjusted inferences can be made regarding performance, adopted strategies, gaze scan quality, alertness or distraction, situational awareness, and workload.
CONTEXTUAL MONITORING PERSPECTIVE SELECTION DURING TRAINING SESSION
Monitoring a training session from a trainee in an interactive computer simulation system. During the training session, while the trainee performs actions in an interactive computer simulation station on one or more tangible instruments thereof for controlling a virtual simulated element, dynamic data is logged related to the actions of the trainee. At a monitoring station of the interactive computer simulation system and during the training session, a graphical user interface is displayed depicting a contextual scene related to the interactive computer simulation from a first point of view and detecting a predetermined event in the dynamic data during the training session. At the monitoring station, a second point of view is defined different from the first point of view and the contextual scene is generated in the graphical user interface after the predetermined event detection from the second point of view.
CONTEXTUAL MONITORING PERSPECTIVE SELECTION DURING TRAINING SESSION
Monitoring a training session from a trainee in an interactive computer simulation system. During the training session, while the trainee performs actions in an interactive computer simulation station on one or more tangible instruments thereof for controlling a virtual simulated element, dynamic data is logged related to the actions of the trainee. At a monitoring station of the interactive computer simulation system and during the training session, a graphical user interface is displayed depicting a contextual scene related to the interactive computer simulation from a first point of view and detecting a predetermined event in the dynamic data during the training session. At the monitoring station, a second point of view is defined different from the first point of view and the contextual scene is generated in the graphical user interface after the predetermined event detection from the second point of view.
VISUALIZING SUB-SYSTEMS OF A VIRTUAL SIMULATED ELEMENT IN AN INTERACTIVE COMPUTER SIMULATION SYSTEM
Method and system for visualizing dynamic virtual sub-systems of a virtual simulated element in an interactive computer simulation system comprising a computer generated environment. One or more tangible instruments control the virtual simulated element in the computer generated environment. A graphical user interface comprising an interactive display portion depicting a rendered view of the virtual simulated element. While an interactive computer simulation of the virtual simulated element is performed in the interactive computer simulation system, a storage system logs dynamic data in relation to the dynamic virtual sub-systems. At least one of the dynamic virtual sub-systems of the virtual simulated element is selected and a subset of dynamic data related to the selected virtual sub-system is loaded from the storage system. The selected virtual sub-system is displayed together with the related dynamic data on the graphical user interface.