Abstract:
A method for providing a display to a flight crew of an aircraft includes receiving a required time of arrival (RTA) control instruction for arriving at a particular waypoint at a particular time, calculating an initial required aircraft speed at which the aircraft is required to fly in order to arrive at the particular waypoint at the particular time, and providing a flight display comprising a speed tape. The method further includes receiving an input accepting the RTA control instruction and calculating an updated required aircraft speed at which the aircraft is required to fly in order to arrive at the particular waypoint at the particular time. Still further, the method includes updating the flight display comprising displaying the updated RTA target speed on the speed tape using a second symbology that is different from the first symbology and discontinuing the display of the first symbology.
Abstract:
A method is provided for displaying information on a display device of an aircraft. The method comprises receiving data indicating a point selected from a trajectory of a flight path; determining an estimated time of arrival minimum and an estimated time of arrival maximum based on the point; and displaying in a dialogue box associated with the trajectory of the flight path the estimated time of arrival minimum and the estimated time of arrival maximum for the point.
Abstract:
Systems and methods for air-ground message prioritization are provided. In one embodiment, an message communication system comprises: a first Class-of-Service and Priority Tagging Module configured to tag messages with a message tag, the message tag comprising a Class-of-Service tag and a Priority tag; a queue broker that includes a plurality of message queues, wherein each message queues is associated with a Class-of-Service defined by at least one datalink technology, wherein the queue broker assigns each of the messages to one of the plurality of message queues based on a Class-of-Service indicated by the Class-of-Service tag; and an on-board message broker that monitors datalink availability and current state indicators, wherein the on-board message broker communicates to the queue broker when to transition one or more of the message queues between a Prioritize-and-Store operating state and a Prioritize-and-Forward operating state based on the datalink availability and the current state indicators.
Abstract:
Embodiments of the present disclosure are directed to an event management framework configured to mitigate events impacting the operation of a vehicle. Embodiments can receive a set of vehicle operation constraints, receive vehicle sensor data, and receive travel event data associated with the operation of the aerial vehicle. Embodiments include an event management engine configured to determine a set of recommendations related to the events. The event management engine is distributed across multiple operational segments of the event management framework. The event management engine can determine a respective computing device of the multiple operational segments for determining the set of recommendations based at least in part on a respective classification of the one or more events. The event management engine can also cause execution of the respective recommendations, where causing the execution of the respective recommendations causes operation of one or more vehicle systems affecting control of the aerial vehicle.
Abstract:
A method for providing a display to a flight crew of an aircraft includes receiving a required time of arrival (RTA) control instruction for arriving at a particular waypoint at a particular time, calculating an initial required aircraft speed at which the aircraft is required to fly in order to arrive at the particular waypoint at the particular time, and providing a flight display comprising a speed tape. The method further includes receiving an input accepting the RTA control instruction and calculating an updated required aircraft speed at which the aircraft is required to fly in order to arrive at the particular waypoint at the particular time. Still further, the method includes updating the flight display comprising displaying the updated RTA target speed on the speed tape using a second symbology that is different from the first symbology and discontinuing the display of the first symbology.
Abstract:
Systems and methods for air-ground message prioritization are provided. In one embodiment, an message communication system comprises: a first Class-of-Service and Priority Tagging Module configured to tag messages with a message tag, the message tag comprising a Class-of-Service tag and a Priority tag; a queue broker that includes a plurality of message queues, wherein each message queues is associated with a Class-of-Service defined by at least one datalink technology, wherein the queue broker assigns each of the messages to one of the plurality of message queues based on a Class-of-Service indicated by the Class-of-Service tag; and an on-board message broker that monitors datalink availability and current state indicators, wherein the on-board message broker communicates to the queue broker when to transition one or more of the message queues between a Prioritize-and-Store operating state and a Prioritize-and-Forward operating state based on the datalink availability and the current state indicators.
Abstract:
A method is provided for displaying information on a display device of an aircraft. The method comprises receiving data indicating a point selected from a trajectory of a flight path; determining an estimated time of arrival minimum and an estimated time of arrival maximum based on the point; and displaying in a dialogue box associated with the trajectory of the flight path the estimated time of arrival minimum and the estimated time of arrival maximum for the point.
Abstract:
Methods and systems are provided for optimizing aircraft operations using uplink weather data to identify predicted turbulent conditions. The method comprises uploading current weather data to a flight management system (FMS) of an aircraft. Areas of turbulence are identified according to the uploaded weather data including areas of turbulence along the client flight trajectory stored in the FMS of the aircraft. An optimal turbulence penetration speed is planned for each identified area of turbulence. The estimated time of arrival (ETA) and minimum and maximum estimate time of arrival (ETA min/max) for the aircraft is recalculated based on the optimal turbulence penetration speeds. The recalculated ETA and ETA min/max is automatically transmitted to an air traffic control (ATC) authority with the FMS of the aircraft.
Abstract:
Methods and systems are provided for optimizing aircraft operations using uplink weather data to identify predicted turbulent conditions. The method comprises uploading current weather data to a flight management system (FMS) of an aircraft. Areas of turbulence are identified according to the uploaded weather data including areas of turbulence along the client flight trajectory stored in the FMS of the aircraft. An optimal turbulence penetration speed is planned for each identified area of turbulence. The estimated time of arrival (ETA) and minimum and maximum estimate time of arrival (ETA min/max) for the aircraft is recalculated based on the optimal turbulence penetration speeds. The recalculated ETA and ETA min/max is automatically transmitted to an air traffic control (ATC) authority with the FMS of the aircraft.