Abstract: A system and method for alerting when a trend vector associated with a traffic aircraft is predicted to intercept a travel route of an ownship aircraft. A control module receives real-time aircraft state data, flight plan data, and traffic data associated with the traffic aircraft. The control module processes these data and constructs the travel route of the ownship aircraft from the current location to the intended destination The control module generates the trend vector associated with the traffic aircraft, predicts a location of an intersection of the trend vector and the travel route, determines an amount of time it will take for the ownship aircraft to reach the location of the intersection, and generates display commands that cause the display device to generate an alert that visually distinguishes the location on the image based at least in part on the amount of time.

Abstract: A method of providing contextual display modes for a vertical takeoff and landing (VTOL) vehicle including obtaining aircraft flight information including a current position and altitude; retrieving vertiport information for a vertiport at the current position of the aircraft; displaying, to one or more operators of the aircraft, a takeoff synthetic vision display mode; transitioning, as the current altitude approaches the transitional altitude, from the takeoff synthetic vision display mode to a cruise synthetic vision display mode, wherein the cruise synthetic vision display mode represents the view from a cruise display viewpoint at the current altitude of the aircraft and at the current position of the aircraft; and displaying, in response to the current altitude equaling or exceeding the transitional altitude, the cruise synthetic vision display mode.

Abstract: A system and method to detect and alert about radio communication anomalies includes receiving, in a processing system, a first audio communication that is audio from a demodulated radio communication, and receiving, in the processing system, a second audio communication that is audio from a vehicle operator. The first audio communication is processed, in the processing system, to determine, from at least one audio characteristic, when the first audio communication is characteristic of a first radio communication anomaly. The first audio communication and the second audio communication are processed, in the processing system, to determine when the first audio communication and the second audio communication are causing a second radio communication anomaly. The vehicle operator is alerted, via an alert generator, when it is determined that either the first radio communication anomaly or the second radio communication anomaly occur.

Abstract: Disclosed are methods, systems, and non-transitory computer-readable medium for managing energy use in a vehicle. For instance, the method may include receiving forecasted data from a first external source, receiving real-time data corresponding to at least one weather parameter at a first location at a first time, and continuously determining whether to perform an adjustment to a control parameter of the vehicle by using a machine learning model that is based on the forecasted data for the at least one weather parameter, the real-time data for the at least one weather parameter, a battery condition of the vehicle, and/or an estimated amount of energy consumed by traveling along a first navigation path.

Abstract: Systems and methods are provided for promoting intersection takeoff awareness. The system includes a database storing runway data that includes identifications and locations of runways, identifications and locations of intersections along the runways, and lengths of the runways, a sensor system configured to generate aircraft position data that includes a current position of the aircraft, a display device, and a controller configured to, by a processor: retrieve the runway data, receive the aircraft position data, identify a first intersection of a first runway as the aircraft approaches the first intersection, determine a runway distance available from the first intersection, and display, on the display device, prior to the aircraft entering the first runway, the runway distance from the first intersection and/or an indication as to whether the runway distance from the first intersection is sufficient for takeoff based on performance parameters of the aircraft and safe takeoff criteria.

Abstract: Systems and methods are provided for displaying differential ground speed for traffic surrounding an aircraft. The system includes an aircraft control panel in a cockpit of an ownship aircraft and a digital traffic display located on the control panel. The digital traffic display provides cockpit display of traffic information (CDTI) that shows a speed scale with a graphical display of the ground speed of the ownship aircraft and the ground speed of traffic to follow (TTF). The separation scale also shows a graphical display of a separation distance between the ownship aircraft and the TTF. A change in separation distance is calculated based of the difference in ground speed between the ownship aircraft and the TTF. An advisory/warning indicator that shows a color-coded status of the change in separation distance in comparison a pre-determined desired separation distance between the ownship aircraft and the TTF.

Abstract: Methods and systems are provided for promoting collision threat awareness for a mobile platform. The system comprises a searchlight to emit a beam of light and means for articulating the searchlight, a sensor system to sense a location, elevation, and orientation of the mobile platform and/or locations and elevations of obstacles including terrain and manmade objects, a source of data including the locations and elevations of the obstacles, and a controller configured to, by a processor: identify a first obstacle that poses a collision threat to the mobile platform based on the location, elevation, and/or orientation of the mobile platform and the location and elevation of the first obstacle, and operate the searchlight assembly to: automatically direct the beam of light toward the first obstacle, and/or automatically direct the beam of light toward an escape route that allows the mobile platform to avoid collision with the first obstacle.

Abstract: An apparatus includes at least one processor and at least one non-transitory memory having computer-coded instructions stored thereon that, in execution with the at least one processor, cause the apparatus to receive flight sensor data associated with an aerial vehicle operating in an environment, generate a virtual environment based at least in part on the flight sensor data, generate, within the virtual environment, a virtual corridor defining a volume within which the aerial vehicle is safe to operate, and cause rendering of a user interface comprising at least one visualization interface depicting at least the virtual corridor together with a transition point at which a vertical takeoff or a vertical landing is to commence is indicated.

Abstract: A system and method of transmitting an aircraft report (AIREP) from a first aircraft having an enabled aircraft autoland system includes retrieving, via a first processing system, standard AIREP data from one or more avionic systems within the first aircraft, the standard AIREP data including standard AIREP reporting information. The first processing system retrieves autoland enablement data that indicates whether the autoland system was manually or automatically enabled, and also retrieves autoland information data from the one or more avionics systems, where the autoland information data includes current aircraft state data and current flight plan data and is different from the standard AIREP data. The autoland information data is appended to the standard AIREP data to generate an AIREP-autoland message and the AIREP-autoland message is transmitted.

Abstract: Embodiments of the present disclosure assist pilots of aerial vehicles in performing particular operations utilizing improved user interface(s). In some contexts, pilots performing vertical takeoffs or vertical landings cannot visually inspect the environment around the vehicle. Embodiments of the present disclosure utilize virtual elements, including a virtual corridor and virtual vehicle corresponding to an aerial vehicle, to enable improved visualization and control of an aerial vehicle within a particular environment. Utilizing representation(s) of the virtual elements, including a virtual corridor and/or virtual vehicle, embodiments of the present disclosure provide improved user interfaces that assist a pilot in safely controlling an aerial vehicle (even without visual inspection of a real-world environment) during vertical takeoff and/or vertical landing.

Abstract: A method of providing contextual display modes for a vertical takeoff and landing (VTOL) vehicle including obtaining aircraft flight information including a current position and altitude; retrieving vertiport information for a vertiport at the current position of the aircraft; displaying, to one or more operators of the aircraft, a takeoff synthetic vision display mode; transitioning, as the current altitude approaches the transitional altitude, from the takeoff synthetic vision display mode to a cruise synthetic vision display mode, wherein the cruise synthetic vision display mode represents the view from a cruise display viewpoint at the current altitude of the aircraft and at the current position of the aircraft; and displaying, in response to the current altitude equaling or exceeding the transitional altitude, the cruise synthetic vision display mode.

Abstract: A system and method of transmitting an aircraft report (AIREP) from a first aircraft having an enabled aircraft autoland system includes retrieving, via a first processing system, standard AIREP data from one or more avionic systems within the first aircraft, the standard AIREP data including standard AIREP reporting information. The first processing system retrieves autoland enablement data that indicates whether the autoland system was manually or automatically enabled, and also retrieves autoland information data from the one or more avionics systems, where the autoland information data includes current aircraft state data and current flight plan data and is different from the standard AIREP data. The autoland information data is appended to the standard AIREP data to generate an AIREP-autoland message and the AIREP-autoland message is transmitted.

Abstract: Methods and systems are provided for providing a runway awareness system for an aircrew of an aircraft. The method comprises receiving a first data stream that provides operational characteristics of a primary aviation parameter on approach to the runway. A second data stream is also received that provides operational characteristics of an alternative aviation parameter on approach to the runway. The first data stream and the second data stream are then displayed in a comparative layout format on a flight display for the aircrew of the aircraft during the approach to the runway.

Abstract: Methods and systems are provided for assisting operation of a vehicle using speech recognition and transcription to provide a conversation log graphical user interface (GUI) display. One method involves analyzing a transcription of an audio communication depicted on the conversation log GUI display to identify an operational subject associated with the audio communication, obtaining supplemental information pertaining to the operational subject from a data source, generating, on the conversation log GUI display, a selectable GUI element associated with the supplemental information, and in response to user selection of the selectable GUI element, generating, on the display device, a graphical representation based at least in part on the supplemental information. In some implementations, a separate supplemental information GUI display is presented in lieu of the conversation log GUI display in response to selection of the selectable GUI element.

Abstract: Methods and systems are provided for displaying multiple time rings on an avionic display. The method includes displaying at least a first time ring in an avionic display; displaying at least a second time ring in the avionic display wherein the first and second time rings include a pair of visually spaced apart time rings wherein a visual spacing apart between the first and second time rings is indicative of a range and a separation flight time between each of the time rings; and displaying, about at least the first time ring in the avionic display, a distance marker of a value for a range and a time marker of a value for separation flight time about an ownship's position and airspeed, and to at least one time ring.

Abstract: A flight deck system for providing progressive taxiing guidance is provided. The flight deck system comprises a controller configured to: generate a graphical insert to overlay a small portion of an active navigation display, the graphical insert providing a progressive depiction of upcoming travel surfaces on a cleared taxi route. The graphical insert comprises a non-linear map with non-linear scaling, a current travel surface alphanumeric indicator, and a current travel surface stick character representative of a current travel surface. The controller is further configured to position, on the graphical insert, a crossing travel surface sign, a first-turn travel surface stick character, and a second-turn travel surface stick character; update the position of the crossing travel surface sign, the first-turn travel surface stick character, and/or the second-turn travel surface stick character as the aircraft travels; and cause the graphical insert to be displayed as an overlay on the active navigation display.

Abstract: 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.

Abstract: A system and method for alerting when a trend vector associated with a traffic aircraft is predicted to intercept a travel route of an ownship aircraft. A control module receives real-time aircraft state data, flight plan data, and traffic data associated with the traffic aircraft. The control module processes these data and constructs the travel route of the ownship aircraft from the current location to the intended destination The control module generates the trend vector associated with the traffic aircraft, predicts a location of an intersection of the trend vector and the travel route, determines an amount of time it will take for the ownship aircraft to reach the location of the intersection, and generates display commands that cause the display device to generate an alert that visually distinguishes the location on the image based at least in part on the amount of time.

Abstract: Methods and systems are provided for displaying multiple time rings on an avionic display. The method includes displaying at least a first time ring in an avionic display; displaying at least a second time ring in the avionic display wherein the first and second time rings include a pair of visually spaced apart time rings wherein a visual spacing apart between the first and second time rings is indicative of a range and a separation flight time between each of the time rings; and displaying, about at least the first time ring in the avionic display, a distance marker of a value for a range and a time marker of a value for separation flight time about an ownship's position and airspeed, and to at least one time ring.

Abstract: A method for sending environmental data to a vehicle in transit is disclosed. The method is performed by a ground system. The method includes receiving new environmental data from a plurality of environmental data providers. The method also includes synthesizing an update template that identifies recommended portions of relevant data that are available to be uploaded for at least one of a plurality of environmental data services. The method also includes sending the update template to the vehicle using a low-bandwidth connection, wherein the update template is sent by the ground system without first receiving a request for the update template. The method also includes receiving, from the vehicle, a request for the recommended portions of relevant data. The method also includes sending the recommended portions of relevant data to the vehicle in an update package using a high-bandwidth connection.