Honeywell International Inc.

Alliedsignal Inc.

Gang He

Thea Lynn Feyereisen

Ivan Sandy Wyatt

Aaron James Gannon

John Suddreth

Jary Engels

Steve C Johnson

Blake W Wilson

Rui Wang

Pramod Kumar Malviya

Rakshit R

Jason F Harvey

Dave Pepitone

Subash Samuthirapandian

Zuowei He

Bryan Weaver

Troy A Nichols

Patricia May Ververs

Zhong Hai Chen

Lei Wang

Min Wu

Kevin J Conner

Brock Graham

Pavan Kumar Desai

Yasuo Ishihara

Ratan Khatwa

Mohammed Ibrahim Mohideen

Guoqing Wang

Stephen D Whitlow

Hariharan Saptharishi

Gobinathan Baladhandapani

Jan Bilek

Narayanan Srinivasan

David B Dwyer

David Pepitone

Emmanuel Letsu-Dake

Yufeng Liu

Anoop S

Carlos M Gameros

Wen Guo

James Alexander Nicholls

Zhiguo Ren

Kenneth M Leiphon

Mark Giddings

Stephane Marche

Carl A Dins

Ondrej Koukol

Glenn Connor

Haidong Huang

John G Suddreth

Rakshit Ramakrishna

Zhihao Qin

Guo Qing Wang

Jan Flasar

Atmacharan Ajjavara

David Allen Tunheim

Mark Karl Sutter

Tomas Kralicek

Simon Innocent

Marc L Lajeunesse

Bincicil Mathew

Sandy Wyatt

David A Shirley

Ryan Milmoe

Abiram Rajendran

Martin Puskar

Blake W Wilson, Jr

Roshini Mehboob

Peter Chudy

Jakub Dluhos

Hai DongHuang

Peter L Daniel

Yong Zhang

Zhong Chen

Ye He

Steve Johnson

Fenfei Guo

Jary E Engles

Hai Dong Huang

Wen Fan Guo

Marc Lajeunesse

Mark Sutter

Jary E Engels

Methods and systems are provided for propagating a free-form user input across different displays. One method involves receiving a free-form user input on a navigational map display, assigning a geographic location to the free-form user input based on a position of the free-form user input on the navigational map display, and generating a graphical indication influenced by the free-form user input on a second display at a respective position on the second display corresponding to the geographic location assigned to the free-form user input.

Methods and systems for propagating user inputs to different displays

Systems and methods for presenting a qualitative risk assessment for an aircraft to perform a flight procedure. Methods include determining: a pilot support value that is representative of a human-machine interface (HMI) onboard the aircraft; a crew factors value representative of a number of pilots and respective experience; an equipment state value of the aircraft, representing available and functioning avionic systems; a type of procedure for the flight procedure; a remaining trip length; an airport facilities state value; an Airport facilities state value; a physical environment value; and, an environmental state value. The method calculates the qualitative risk assessment, as a function of the determined values/factors and presents the qualitative risk assessment in a predefined area on an avionic display in the aircraft.

Systems and methods for presenting a qualitative risk assessment for an aircraft to perform a flight procedure

A controller for selectively displaying information from raster charts is disclosed. The controller is configured to: retrieve raster data; assign a different priority level to each of a plurality of types of raster data; cause raster data having a predetermined priority level to be displayed with first augmentation information and prevent from being displayed raster data not having the first predetermined priority level, wherein the first augmentation information comprises database data retrieved from a database and is assigned a first predetermined augmentation information priority level; generate a hidden layer of second augmentation information comprising database data from the database that is correlated to a geographical location of the displayed raster data and assigned a second predetermined augmentation information priority level; and cause the hidden layer of second augmentation information to be displayed over a portion of the displayed raster data when the geographical location is selected.

System and method for dynamically augmenting raster charts displayed on a cockpit display

Systems and methods are disclosed that receiving ground traffic data from a traffic computer, and enhanced vision system, EVS, imaging data from at least one EVS camera. A target area is determined in the EVS imaging data based on position data of the ground traffic data. Graphics processing is performed that is confined to the target area to enhance visibility of ground traffic in the EVS imaging data in the target area, thereby generating enhanced EVS imaging data. The graphics processing is selected from at least one of contrast enhancement, edge detection and template matching and highlighting of an outline of the ground traffic. A display is generated that is to be displayed on the display device based on the enhanced EVS imaging data and the EVS imaging data.

Methods and systems for highlighting ground traffic on cockpit displays

Methods and systems for low visibility surface movement guidance for an aircraft navigating an airport environment. The system includes an avionic display module on an aircraft, configured to receive ownship data and generate an avionic display on a display device, and to respond to display commands. The system also includes a low voltage (LV) conditions module, configured to: receive weather data and determine when low voltage LV conditions are occurring; and, responsive to determining that LV conditions are occurring, (i) generate display commands to reconfigure the avionic display to present the LVO plan, rendered in accordance with a preprogrammed visualization scheme for rendering LV features in the LVO plan, and (ii) calculate an optimized taxi route for the aircraft to a target airport point of interest, as a function of the LVO plan. The system generates display commands to render the optimized taxi route on the reconfigured avionic display.

Systems and methods for low visibility guidance and taxi routing

An ADS-B traffic filter to remove ADS-B positional messages or tracks with unstable ADS-B data or anomalies. The anomaly in ADS-B data can be caused by own ship ADS-B data processing and by errors in ADS-B OUT messages, such as positional outliers, ADS-B OUT parameters gaps, frozen data, walking track when stopped and other issues within ADS-B OUT messages. The ADS-B traffic filter of this disclosure may remove erroneous ADS-B targets from computation input delivered to a traffic collision warning systems in locations where high horizontal position accuracy is desirable such as ground operations. The filter may validate positions decoded from received ADS-B OUT messages, and data history of targets, to independent signal components from ADS-B broadcast (e.g., position and ground speed data), as well as compare the reported position with a reasonability bound provided by local runway or airport geometry data.

ADS-B traffic filter

Methods and systems for providing landing area information on an active avionic display on a display device in a cockpit of an aircraft. The system includes an avionic display module configured to render an avionic display on a display device; and a landing area guidance module configured to: construct a graphical insert that is smaller than the avionic display, the graphical insert depicting the landing area environment as a two-dimensional area that includes a landing location rendered therein in a first visualization scheme; overlay the graphical insert on a small portion of the avionic display; indicate a target exit on the landing location; determine whether a runway overrun awareness alerting system (ROAAS) alert has been received; determine whether a surface indication alerts (SurfIA) alert has been received; responsive to the ROAAS alert and the SurfIA alert, alter the rendering within the graphical insert.

Systems and methods for displaying combined runway overrun awareness alerting system (ROAAS) and surface indications alerts (SURFIA) traffic symbology

Systems and methods for displaying a scorecard for rating pilot performance by registering a wearable device based on the identification of the wearable device through pilot profile data, location data, and an identification key data received from the wearable device; linking, the wearable device to the avionic system to receive flight data, and to a cloud server to receive computed performance scores for in-flight display by the wearable device; alternately, in response to a manual input action, authenticating pilot identity to enable pilot access and linking of the flight data to the cloud server for display; generating a set of flight components via a model specified for a flight phase based on data from the wearable device if available, and the flight data, the model includes flight performance score values; displaying a flight phase performance score; and displaying on the graphical user interface in a cockpit display the performance scorecard.

Systems and methods for flight deck customization and pilot performance analytics

Systems and methods for calibrating a synthetic image on an avionic display. The method includes receiving a synthetic image frame generated by an avionic display system and a sensor image frame from a forward-facing onboard sensor system. Object recognition is performed on the sensor image frame to generate a first search region for a first Federal Aviation Administration (FAA) marking, defined as a first search region-FAA marking pair. The sensor image frame and the first search region-FAA marking pair are processed using a deep learning method (DLM) to determine for the first FAA marking of the first search region-FAA marking pair, each of: a position deviation calculation, an orientation deviation calculation, and a synthetic image distortion factor. The synthetic image frame is then updated and rendered in accordance with the position deviation calculation, the orientation deviation calculation, and the synthetic image distortion factor, thereby calibrating the synthetic image frame.

Systems and methods for calibrating a synthetic image on an avionic display

A flight deck system and a method for providing a flight crew with a ground path to a destination at an aerodrome for taxiing is disclosed. The flight deck system includes a controller configured to: set a destination point on the ground at the aerodrome for an airborne aircraft that is preparing to land; estimate a stopping point for the aircraft on a runway; and predict a ground path for the aircraft to follow at the aerodrome from the runway to the destination point. To predict the controller is further configured to: determine a starting point on the runway for the predicted ground path; and determine a runway exit point to a taxiway. The controller is further configured to cause the predicted ground path to be displayed on a flight deck display device.

Methods to initialize ground taxi clearance display

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

Methods and systems of displaying weather data for a cockpit display system of an aircraft. The methods and systems include generating a display to include a first graphical map of real-time weather data from a weather radar. The display further includes a notification graphic associated with a portion of part of a displayed flight plan in which a significant weather condition exists. When the notification graphic is selected, the display includes the first graphical map of the real time weather data based on weather data from the weather radar and a second graphical map of significant weather conditions data derived from transmitted weather data.

Systems and methods for displaying weather data

The present disclosure relates to a vertical takeoff and landing, VTOL, vehicle having a landing aid and associated methods. The landing aid includes at least one processor is configured to: receive image data from an image capture device, receive altitude data from the altimeter, retrieve template landing pad image data for a target landing pad from the database, scale the template landing pad image data based on the altitude data, compare the scaled template landing pad image data and the image data received from the image capture device to locate the target landing pad therein, thereby providing target landing pad localization data, and control a function of the VTOL vehicle based on the target landing pad localization data.

Systems and methods for aiding landing of vertical takeoff and landing vehicle

Methods and systems are provided for guiding or otherwise assisting operation of an aircraft when diverting from a flight plan. One method involves determining a gliding trajectory for the aircraft based at least in part on a current altitude of the aircraft, providing a graphical representation of the gliding trajectory for the aircraft, identifying a plurality of landing locations within a range defined by the gliding trajectory from the aircraft, and for each landing location of the plurality of landing locations, providing a graphical representation of a respective landing location with respect to the gliding trajectory at a respective altitude associated with the respective landing location and at a respective distance with respect to a graphical representation of the aircraft corresponding to a respective geographic distance between a current location of the aircraft and the respective landing location.

Composite vertical profile display systems and methods

A ground collision avoidance method in an ownship vehicle is disclosed. The method includes: retrieving position measurements for the ownship vehicle and for a dynamic obstacle; retrieving mapping data from an airport map database that includes coordinate data for airport travel pathways; adjusting a position measurement for the ownship vehicle and a position measurement for the dynamic obstacle based on coordinate data retrieved from the airport map database and historical aircraft movement data; predicting a series of future positions for the ownship vehicle that are constrained by airport surface operation rules; predicting a series of future positions for the dynamic obstacle that are constrained by airport surface operation rules; calculating whether a potential collision is imminent; and causing a collision alert to be displayed when the processor has determined that a potential collision between the ownship vehicle and the dynamic obstacle is imminent.

System and method for database augmented ground collision avoidance

Growing community of inventors

Morristown, NJ, United States of America

Gang He