Abstract:
A system, method and an avionics subsystem are disclosed. For example, the system includes a data transmitter configured to transmit flight data associated with an airborne vehicle in real-time, a flight deck associated with the airborne vehicle and configured to exhibit a response to the flight data, and a transceiver coupled to the data transmitter and configured to receive and re-transmit the flight data in real-time. The system further includes a processing system coupled to the transceiver and configured to receive and re-transmit the flight data in real-time, and a flight simulator coupled to the processing system and configured, in response to the flight data, to replicate the exhibited response of the flight deck in real-time.
Abstract:
A system, method and an avionics subsystem are disclosed. For example, the system includes a data transmitter configured to transmit flight data associated with an airborne vehicle in real-time, a flight deck associated with the airborne vehicle and configured to exhibit a response to the flight data, and a transceiver coupled to the data transmitter and configured to receive and re-transmit the flight data in real-time. The system further includes a processing system coupled to the transceiver and configured to receive and re-transmit the flight data in real-time, and a flight simulator coupled to the processing system and configured, in response to the flight data, to replicate the exhibited response of the flight deck in real-time.
Abstract:
A method for computing drop zone data onboard an aircraft is provided. The method obtains, by a processor, current drop zone parameters for an air drop, during flight of the aircraft; receives, by the processor, changes to dynamic conditions associated with operation of the aircraft, wherein the dynamic conditions comprise at least one of wind speed, drop altitude, current temperature, angle of approach, aircraft speed, and number of stages of planned drop; calculates, by the processor, updated drop zone parameters, based on the current drop zone parameters and the changes to the dynamic conditions; and presents the updated drop zone parameters, via a display device.
Abstract:
A system includes a hands free mobile communication device. Software stored on a machine readable storage device is executed to cause the hands free mobile communication device to communicate audibly with a field operator performing field operations. The operator receives instructions regarding operations to be performed. Oral communications are received from the operator and are processed automatically to provide further instructions in response to the received oral communications.
Abstract:
A system and method is provided for displaying information related to an in-trail procedure (ITP) on a ITP display aboard a host aircraft. Current flight status data of the host aircraft and at least a second aircraft is obtained, and a vertical traffic scenario including at least the host aircraft ant the second aircraft is rendered on the display. A textual representation of a negotiation between ATC and the host aircraft is also rendered on the ITP display.
Abstract:
A system and method is provided for displaying information related to an in-trail procedure (ITP) on a ITP display aboard a host aircraft. Current flight status data of the host aircraft and at least a second aircraft is obtained, and a vertical traffic scenario including at least the host aircraft ant the second aircraft is rendered on the display. A textual representation of a negotiation between ATC and the host aircraft is also rendered on the ITP display.
Abstract:
Methods and systems are provided for generating a user and phase of flight dependent cockpit display. The methods and systems generate a display for a display device using display settings included in a user profile and a current phase of flight. The display settings include preferences defining a range of a map to be displayed that are different for different phases of flight, and preferences defining a level of declutter of a map to be displayed that are different for different phases of flight.
Abstract:
A method for computing drop zone data onboard an aircraft is provided. The method obtains, by a processor, current drop zone parameters for an air drop, during flight of the aircraft; receives, by the processor, changes to dynamic conditions associated with operation of the aircraft, wherein the dynamic conditions comprise at least one of wind speed, drop altitude, current temperature, angle of approach, aircraft speed, and number of stages of planned drop; calculates, by the processor, updated drop zone parameters, based on the current drop zone parameters and the changes to the dynamic conditions; and presents the updated drop zone parameters, via a display device.
Abstract:
Methods and system are provided for managing speech processing in an environment having at least two speech enabled systems. In one embodiment, a method includes: recording first user data that indicates an action of a user; determining, by a processor, a selection of a first speech enabled system based on the recorded user data; and generating, by the processor, a signal to at least one of activate and deactivate speech processing based on the first speech enabled system.