Honeywell International Inc.

Rui Wang

Gang He

Thea Lynn Feyereisen

Pramod Kumar Malviya

Rakshit Ramakrishna

Subash Samuthirapandian

Emmanuel Letsu-Dake

Bryan Weaver

Brock Graham

Zuowei He

Guoqing Wang

Fenfei Guo

Yong Zhang

Methods and systems of determining and displaying a taxiing route on an airport moving map. The methods and systems include computer implemented steps of: deriving a location of the ground traffic with respect to taxiways or runways at an airport and a direction of travel of the ground traffic, executing a route planning algorithm for determining a route including one or more taxiways and runways from an aircraft location to the taxi destination using, as inputs, airport data from an airport mapping database, the location of the ground traffic, the direction of travel of the ground traffic, and a taxi destination, and generating a display for the display device including an airport moving map based on airport data from the airport mapping database and including a graphical depiction of the route on the airport moving map.

Cockpit display systems and methods for displaying taxiing route on airport moving map

A system and method of operating a correlative display system for a plurality of display systems on an aircraft includes receiving, by a processor, an identification of a feature from a user interface associated with a first display system of the plurality of display systems. The processor determines a location of the identified feature relative to data displayed on each other display system of the plurality of display systems, wherein the identified feature is not previously displayed on at least one of the other display systems of the plurality of display systems. The processor generates instructions to highlight the identified feature on each other display system of the plurality of display systems at the determine location relative to data displayed on each other display system.

Correlative display system with decluttered displays for aircraft

A system and method for operating a dynamic vertical situation display on an aircraft includes generating display data for a dynamic vertical situation display displayed on a display based upon flight plan data from a flight management system, where the flight plan data includes a plurality of waypoints and one or more phases of flight. A current phase of flight of the aircraft and a number of waypoints currenting displayed on the dynamic vertical situation display on the display is determined, and instructions to dynamically change a size of the dynamic vertical situation display on the display are generated based upon at least one of the number of waypoints currenting displayed on the display and the current phase of flight of the aircraft.

Dynamic vertical situation display

Methods and systems are provided for generating an animated display for an aircraft. The method comprises receiving a user request for a change in a layer shown on a display that shows a view of the flight plan data for the aircraft. The user request is received by a user interface (UI) that is part of a map layer display system located onboard the aircraft. The system determines which specific layer corresponds to user request for a change to the display. When the user request is to add the layer to the display, the opaqueness of the layer increases from zero percent to one-hundred percent. When the user request is to remove the layer from the display, the opaqueness of the layer decreases from one-hundred percent to zero percent. Finally, the system generates instructions to display the layer at the opaqueness on the display.

System and method for generating an animated display

Improved flight display systems and methods that selectively deemphasize terrain are provided. The method includes receiving and processing navigation reference point data, terrain data, and aircraft status data. Next, the method (a) renders on a display system, in real-time, a viewing segment defined as at least a navigation reference point for the aircraft, the viewing segment having terrain rendered in a first level of terrain contrast; and (b) determines that the aircraft is in a terrain deemphasis scenario when an altitude is certain low altitude operations. When the aircraft is in the terrain deemphasis scenario, the method deemphasizes terrain within a determined boundary in the viewing segment. Deemphasizing includes decreasing terrain contrast to a second level of terrain contrast within the boundary. Terrain contrast within the boundary is restored to the first level responsive to receiving a restore trigger.

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Morris Plains, NJ, United States of America

Rui Wang