Abstract: Some embodiments include a countermeasure assistance system that, in response to detecting a threat to an aircraft, calculates and presents via a user interface an instruction to assist a pilot in evading the threat. For example, the system may determine a direction to which the aircraft should be turned to present a beam of the aircraft toward the threat, which may assist in evading a radar-enabled threat. The system may calculate a shortest turn to present the beam to the threat. The system may additionally display information regarding a position, nature, and degree of the threat, including through formatting of at least a portion of a user interface for displaying information regarding the threat. The system may additionally calculate and display an intervisibility zone for the threat and for the aircraft's current position to further assist the pilot in navigating to an area at which the threat may be evaded.

Abstract: Combined modality hover drift cueing methods, systems and computer readable media are disclosed. For example, some implementations can include a system comprising one or more sensors, and a combined modality hover drift cueing controller coupled to the one or more sensors and configured to determine hover drift and to control a plurality of indicators in response to determined hover drift. The system can also include a mode selector coupled to the combined modality hover drift cueing controller and configured to provide an indication of mode selection between one of a first mode, a second mode and a third mode, wherein the first mode is a combined modality mode. The system can further include a peripheral vision hover drift indicator coupled to the controller and mounted on an inside surface of an aircraft cockpit, and a tactile feedback indicator coupled to the controller.

Abstract: Projected synthetic vision methods, systems and computer readable media are disclosed. For example, a system can include one or more sensors, a terrain database, and a projected synthetic vision controller coupled to the one or more sensors and the terrain database, the projected synthetic vision controller configured to generate and project synthetic vision images based on aircraft position, terrain information and aviator boresight information. The system can also include one or more projectors coupled to the projected synthetic vision controller.

Abstract: Some embodiments include a countermeasure assistance system that, in response to detecting a threat to an aircraft, calculates and presents via a user interface an instruction to assist a pilot in evading the threat. For example, the system may determine a direction to which the aircraft should be turned to present a beam of the aircraft toward the threat, which may assist in evading a radar-enabled threat. The system may calculate a shortest turn to present the beam to the threat. The system may additionally display information regarding a position, nature, and degree of the threat, including through formatting of at least a portion of a user interface for displaying information regarding the threat. The system may additionally calculate and display an intervisibility zone for the threat and for the aircraft's current position to further assist the pilot in navigating to an area at which the threat may be evaded.

Abstract: Combined modality hover drift cueing methods, systems and computer readable media are disclosed. For example, some implementations can include a system comprising one or more sensors, and a combined modality hover drift cueing controller coupled to the one or more sensors and configured to determine hover drift and to control a plurality of indicators in response to determined hover drift. The system can also include a mode selector coupled to the combined modality hover drift cueing controller and configured to provide an indication of mode selection between one of a first mode, a second mode and a third mode, wherein the first mode is a combined modality mode. The system can further include a peripheral vision hover drift indicator coupled to the controller and mounted on an inside surface of an aircraft cockpit, and a tactile feedback indicator coupled to the controller.

Abstract: Projected synthetic vision methods, systems and computer readable media are disclosed. For example, a system can include one or more sensors, a terrain database, and a projected synthetic vision controller coupled to the one or more sensors and the terrain database, the projected synthetic vision controller configured to generate and project synthetic vision images based on aircraft position, terrain information and aviator boresight information. The system can also include one or more projectors coupled to the projected synthetic vision controller.

Abstract: Combined modality hover drift cueing methods, systems and computer readable media are disclosed. For example, some implementations can include a system comprising one or more sensors, and a combined modality hover drift cueing controller coupled to the one or more sensors and configured to determine hover drift and to control a plurality of indicators in response to determined hover drift. The system can also include a mode selector coupled to the combined modality hover drift cueing controller and configured to provide an indication of mode selection between one of a first mode, a second mode and a third mode, wherein the first mode is a combined modality mode. The system can further include a peripheral vision hover drift indicator coupled to the controller and mounted on an inside surface of an aircraft cockpit, and a tactile feedback indicator coupled to the controller.

Abstract: Projected synthetic vision methods, systems and computer readable media are disclosed. For example, a system can include one or more sensors, a terrain database, and a projected synthetic vision controller coupled to the one or more sensors and the terrain database, the projected synthetic vision controller configured to generate and project synthetic vision images based on aircraft position, terrain information and aviator boresight information. The system can also include one or more projectors coupled to the projected synthetic vision controller.

Abstract: Combined modality hover drift cueing methods, systems and computer readable media are disclosed. For example, some implementations can include a system comprising one or more sensors, and a combined modality hover drift cueing controller coupled to the one or more sensors and configured to determine hover drift and to control a plurality of indicators in response to determined hover drift. The system can also include a mode selector coupled to the combined modality hover drift cueing controller and configured to provide an indication of mode selection between one of a first mode, a second mode and a third mode, wherein the first mode is a combined modality mode. The system can further include a peripheral vision hover drift indicator coupled to the controller and mounted on an inside surface of an aircraft cockpit, and a tactile feedback indicator coupled to the controller.

Abstract: Projected synthetic vision methods, systems and computer readable media are disclosed. For example, a system can include one or more sensors, a terrain database, and a projected synthetic vision controller coupled to the one or more sensors and the terrain database, the projected synthetic vision controller configured to generate and project synthetic vision images based on aircraft position, terrain information and aviator boresight information. The system can also include one or more projectors coupled to the projected synthetic vision controller.

Abstract: Peripheral vision hover drift cueing methods, systems and computer readable media are disclosed. For example, a system can include one or more sensors, and a peripheral vision hover drift cueing controller coupled to the one or more sensors and configured to determine hover drift and to control a plurality of indicators in response to determined hover drift. The system can also include a first hover drift indicator coupled to the controller and mounted on an inside surface of a vehicle cockpit; and a second hover drift indicator coupled to the controller and mounted on an inside surface of the vehicle cockpit.

Abstract: A system for tactile presentation of information to a pilot of an aircraft. The system comprises a pilot seat, a plurality of tactors, and a controller configured to control the plurality of tactors to tactually present the threat information to the pilot by producing one or more tactile stimuli based on situational awareness information. The tactors in the plurality of tactors are physically coupled to the pilot seat and the threat information is indicative of a threat to the aircraft. In some embodiments, at least one pressure sensor may be physically coupled to the pilot seat and the plurality of tactors may be configured to tactually present the threat information to the pilot based at least in part on data obtained by the at least one pressure sensor.

Abstract: A system for tactile presentation of information to a pilot of an aircraft. The system comprises a pilot seat, a plurality of tactors, and a controller configured to control the plurality of tactors to tactually present the threat information to the pilot by producing one or more tactile stimuli based on situational awareness information. The tactors in the plurality of tactors are physically coupled to the pilot seat and the threat information is indicative of a threat to the aircraft. In some embodiments, at least one pressure sensor may be physically coupled to the pilot seat and the plurality of tactors may be configured to tactually present the threat information to the pilot based at least in part on data obtained by the at least one pressure sensor.

Abstract: Systems and methods for automatically identifying one or more candidate emergency landing sites to a pilot of an aircraft are described. The candidate emergency landing sites lie within a current flight-capable range of an aircraft, and may include non-airfield landing sites. The candidate sites may be calculated by an on-board processing system. Various types of data, such as digital terrain elevation data, ground-cover data, hostile-threat data, surface-water data, aircraft parameter data, and flight-obstacle data may be used by an on-board processing system to calculate one or more candidate emergency landing sites suitable for landing the aircraft. A pilot may initiate an emergency landing site identification process during in-flight distress via a button, touch-sensitive screen, or voice-recognition input. The systems and methods may be useful in combat scenarios.