Abstract: Apparatuses and methods for displaying autoflight information and controlling autoflight systems. In one embodiment, a flight deck for an aircraft having an autoflight system includes at least one pilot seat, at least one window positioned forward of the pilot seat, and a forward instrument panel positioned forward of the pilot seat. In one aspect of this embodiment, the forward window provides a forward field of view out of the aircraft for a pilot seated in the pilot seat. In another aspect of this embodiment, the flight deck further includes a display device configured to provide information related to one or more autoflight modes. The display device can be positioned at least approximately between the forward instrument panel and the forward window to provide the pilot with autoflight information at least proximate to the forward field of view. In a further aspect of this embodiment, the display device can be configured to provide information related to one or more target flight parameters.

Abstract: An operational flight phase determination, indication and configuration system for an aircraft includes input/output circuitry for receiving an operational flight phase selector output signal, aircraft sensor signals, and on-board automation system output signals including configuration status information. A processor is coupled to the input/output circuitry. A flight phase data table is coupled to the processor. The flight phase data table includes a list of the defined operational flight phases for the aircraft. A flight phase transition rules set is coupled to the processor. The flight phase transition rules set includes flight rules for defining flight phase transitions. An aircraft system configuration data table is coupled to the processor. The aircraft system configuration data table includes a list of the defined configurations for each operational flight phase and the aircraft system configuration settings for each configuration. Program memory and working memory are coupled to the processor.

Abstract: An apparatus and method to maintain traditional information presentation in a manner that is consistent with existing training and safety methodology, but eliminates confusion generated when a display symbol is placed in a fully pegged position by positively indicating that the symbol is off-scale and not representing actual accurate information.

Abstract: A vehicle display system diminishes specified display features when in a taxi mode. EV images, SV images, and avionics symbology are displayed, with certain of the images and symbology being diminished when in a taxi mode. Additionally, guidance to the runway centerline is displayed in the taxi mode.

Abstract: The present invention is a communication system for implementation on-board an aircraft. The communication system includes an Audio Control Panel (ACP) including a first input device associated with an installed component and a second input device associated with an uninstalled component. The communication system further includes a Radio Interface Unit (RIU) which is communicatively coupled to the ACP. The communication system further includes an Engine Indicating and Crew Alerting System (EICAS) which includes a Display Management Computer (DMC), the EICAS being communicatively coupled to the RIU and an Aircraft Personality Module (APM) of the communication system. The DMC may be configured for evaluating an input device status (generated based upon an input received via the second input device) against an APM configuration file, and based upon said evaluation, providing an aural and/or visual alert to a user that an input device associated with an uninstalled component has been activated.

Abstract: A system and method for determining when a LED-based position light is nearing its end of life by providing to maintenance personnel visible indication that end of life is approaching. An example system includes a controller, a main LED light, an indicator LED light, a first elapsed time counter, a second elapsed time counter, and an oscillator. The first elapsed time counter recognizes when a first time threshold is exceeded, causing the indicator LED light to flash and triggering the second elapsed time counter to start counting. The second elapsed time counter recognizes when a second time threshold is exceeded, disabling both the indicator LED light and the main LED lights, thereby notifying maintenance personnel that the main LED lights have reached their end of life.

Abstract: The invention relates to a method for managing the flight of an aircraft flying along a trajectory and being subject to an absolute time constraint (on a downstream point) or relative time constraint (spacing with respect to a downstream aircraft), the said aircraft comprising a flight management system calculating a temporal discrepancy to the said time constraint, wherein the said method includes the following steps: the calculation of a distance on the basis of the temporal discrepancy, the modification of the trajectory: if the temporal discrepancy to the time constraint corresponds to an advance, the lengthening of the trajectory by the distance; if the temporal discrepancy to the time constraint corresponds to a delay, the shortening of the trajectory by the distance.

Abstract: A method for controlling an unmanned aerial vehicle (UAV) using an electronic device determines a designated relay station of the UAV using the electronic device, and creates a new flight path for the UAV according to the designated relay station. The method further directs the UAV to fly to the designated relay station upon the condition that the UAV can arrive at the designated relay station, and directs the UAV to fly to a subsequent relay station along the new flight path upon the condition that the UAV has not arrived at an endpoint of the new flight path.

Abstract: Methods and systems are provided for monitoring an aircraft. An exemplary method involves capturing, by a computing system at a ground location, a flight tracking image associated with the aircraft that is displayed on a first display device at the ground location, and communicating the captured flight tracking image to the aircraft for display on a second display device onboard the aircraft.

Abstract: A flight management verification apparatus adapted to verify at least one flight management, wherein the flight management in use outputs a warning, disables an aircraft and/or inhibits the activation thereof in response to a power fail condition. The flight management verification apparatus comprises a first connection means adapted to be disposed in a first power indicator line to a first flight management, wherein the first power indicator line provides a signal representative of a condition of a first power supply, and further comprises a first switch connected in use such that the signal of the power indicator line for the first flight management means is switched. Actuating the switch causes the signal on the power indicator line to change indicating a distortion or failure of the power supply of the aircraft and/or a part thereof. The response of the flight management can be verified by the signal output by the flight management, e.g.

Abstract: An apparatus for automatically applying meteorological information includes a meteorological information classifying unit configured to automatically classify various types of meteorological information discriminately depending on their formats; and a meteorological information parsing unit configured to perform parsing to cut meteorological information classified by the meteorological information classifying unit. Further, the apparatus includes a meteorological information verifying unit configured to verify a syntax error and semantic content with respect to the meteorological information; and a meteorological message generating unit configured to generate a meteorological message by extracting only items required for air control from the meteorological information.

Abstract: A control system for a vehicle includes a period determination module and a motion detection module. The period determination module determines a period for the vehicle to travel a predetermined distance based on a desired transmission output shaft speed (TOSS), a target transmission output shaft position, a final drive ratio of the vehicle, and a tire size of the vehicle. The motion detection module detects whether the vehicle is moving based on the TOSS during the determined period.

Abstract: A visual display system is provided for an aircraft having a flight plan with a plurality of flight plan pages. The system includes a display unit configured to display at least one of the flight plan pages; an input device configured to receive an input from a user corresponding to a selected flight plan page from the plurality of flight plan pages; and a processor coupled to the monitor and the input device. The processor is configured to receive the input from the input device and provide the selected flight plan page to the display unit for display based on the input.

Abstract: Methods and systems for generating a data link air traffic control center menu are provided. In one implementation, a method includes calculating a distance between each of a plurality of air traffic control centers and an aircraft during flight. The method further includes displaying a sorted list of the plurality of air traffic control centers, wherein the list is sorted by the calculated distance, from closest to the aircraft to farthest from the aircraft. The method further includes receiving an input, the input selecting one of the air traffic control centers.

Abstract: A reconfigurable vehicle user interface system is presented. A vehicle user interface has a touch sensitive input devices such as touchpads and a touch screen that have specific function commands mapped to them. A user can select which function commands are mapped to which portions of the touch screen. This allows a user to customize the steering wheel function commands.

Abstract: The present invention relates to a method for changing the path followed by an aircraft, the aircraft initially following a predefined path on the basis of a sequence of waypoints, the method allowing a subsequent return of the aircraft to the predefined path in the same direction or in the reverse direction. The method allows a possible return of the aircraft to the predefined path in the same direction such that the waypoints of the predefined path are projected onto a new path according to a projection function ensuring that the order of the sequence of the projected image points complies with the order of the sequence of the original waypoints. The projection of a waypoint already reached by the aircraft also is considered as having been reached. The projections of the waypoints on the new path are considered reached by the aircraft progressively as the latter progresses along the new path.

Abstract: The invention provides an instrument control panel that is easily customized and reconfigured, and yet provides the familiar tactile sensation of physical knobs, sliders, and buttons. The instrument control panel comprises one or more interface components that are removably coupled to an interface display wherein the interface components communicate with one or more control components disposed behind the interface display. The present invention lends itself particularly well to an instrument panel.

Abstract: A device for confirming the engine thrust of an aircraft is disclosed. The device, via an operating logic unit (14) of each engine processing different information, including a warning indicator (15) connected to the unit (14) delivers or not thrust confirmation information at the level of the cockpit.

Abstract: A vision system is provided for confirming continuously updated approach information from a global positioning system or an instrument landing system with that from an inertial navigation system. The approach information from the inertial navigation system is displayed when the global positioning system or the instrument landing system is unavailable or whose approach information is determined to be invalid.

Abstract: A computer-implemented transportation information management system and method permits entry, recording, and transmission of operation and maintenance data related to FAA recordkeeping and recording requirements within an SQL database. A secure website permits entry and display of operation and maintenance data as well as facilitating data input using input devices such as a cellular telephone, a personal digital assistant, a personal computer, and a portable computer. The system outputs aircraft operation and maintenance data, automatic alerts of pilot flight and duty time limitations, and flight tracking and monitoring information via a spreadsheet, electronic mail message, text message, and a completed FAA mandatory reporting requirement forms to the aforementioned data input devices. Operation and maintenance data is automatically and continuously transferred to the FAA to populate FAA flight tracking data systems and air traffic control data system.

Abstract: Systems and methods for efficiently updating text or symbol annunciations outputted by an avionics system on legacy displays. Instead of using a set sweeping pattern to update the display, a smart updating concept is used. The smart updating concept senses when the pilot is adjusting the selected altitude control (or other user interface device that will alter displayed annunciations), then gives priority to updating the radial lines on the display that contain the annunciation field. Once the annunciation field has been updated, the display returns to normal operation.

Abstract: A system for receiving controller pilot data link communications (CPDLC) in an aircraft comprises a radio for receiving CPDLC messages transmitted by a plurality of remote radio systems; a processing system for determining which of the CPDLC messages are intended for a target remote radio system; and a display for displaying the CPDLC messages intended for the target remote radio system in association with an identifier for the target remote radio system.

Abstract: A method for performing missions with a refueling aircraft. A number of control stations are configured to selectively control a plurality of systems in the refueling aircraft to form a number of configured control stations. The plurality of systems includes a refueling system and a number of other systems. Each of the plurality of systems is capable of performing a different mission. A number of missions are performed during flight using the number of configured control stations.

Abstract: A Device for automatically evaluating an air traffic control message by an aircraft-based component of a flight information system is disclosed. The device comprises means for retrieving the air traffic control message from an aircraft-based system, means for parsing the text of the air traffic control message and means for storing text elements of the air traffic control message into a computer readable memory. Furthermore, it comprises means for retrieving a current flight data of an aircraft, means for determining if there is a mismatch between the stored text elements and the current flight data, the actual flight data comprising at least the current position of the aircraft and means for displaying one or more graphical elements on a moving map display if it is determined that there is a mismatch between the stored text elements and the current flight data.

Abstract: A method and apparatus for displaying aircraft information. A selection of a piece of dynamic information is detected about an aircraft on a first display on a user interface. The piece of dynamic information is used to operate the aircraft and changes during operation of the aircraft. The piece of dynamic information selected from the first display is added to a custom display on the user interface. The custom display is displayed on the user interface on a display system for the aircraft.

Abstract: A flight deck for an aircraft having a first display associated with a first pilot and displaying a first image comprising a first set of flight information for the first pilot and a second display associated with a second pilot and displaying a second image comprising a second set of flight information for the second pilot. The second display is a dual-view display simultaneously generating a third image along with the second image, with the second image viewable by the second pilot, but not the first pilot, the third image viewable by the first pilot, but not the second pilot, and the third image containing a subset of information from the second set of flight information.

Abstract: A method and apparatus in a sensor network in an aircraft for collecting data about the aircraft. The sensor network in the aircraft collects the data about the aircraft. The sensor network comprises a set of wireless sensors attached to a first set of locations for the aircraft, a set of wireless routers attached to a second set of locations for the aircraft, and a set of gateways connected to an aircraft data processing system. The set of wireless routers is capable of receiving the data in wireless signals transmitted by the set of wireless sensors. The set of gateways is capable of receiving data in the wireless signals from the set of wireless routers to form received data and is capable of transmitting the received data into the aircraft data processing system.

Abstract: A visual display system is provided, and includes a visual display element configured to display a visual display with three-dimensional, conformal background information at a first perspective; and a processor coupled to the visual display. The processor can be configured to evaluate flight path information and to adjust the visual display into a second perspective if the flight path information cannot be accurately displayed at the first perspective relative to the background.

Abstract: A computer implemented method, apparatus, and computer usable program code for displaying a symbol representing an aircraft. The symbol is displayed representing the aircraft at a location on a map at a first level of detail. The symbol represents a position of the aircraft on the map, moves on the map in a manner that represents movement of the aircraft with respect to features on the map, has a fixed level of detail that does not change as levels of detail change for the map, and has an anchor point at a first point on the symbol in which the anchor point is used as a point of rotation for the symbol. A second point is identified for the anchor point on the symbol such that view point of the symbol at the second level of detail remains fixed relative to the display of the symbol at the first level of detail. The map is displayed at the second level of detail. The symbol is displayed on the map using the second point for the anchor point.

Abstract: The present invention relates to a piloting assistance system (10) for an aircraft (1) that is provided with determination means (20) for determining piloting information. The system comprises at least one display system (40) wearable on the head of a pilot, the display system (40) being provided with left display means (41) suitable for being viewed by a left eye of said pilot and right display means (42) suitable for being viewed by a right eye of said pilot, said determination means (20) including first processor means (21) for processing said information and second processor means (22) for processing said information, the processor means including stored instructions for causing said information to be displayed simultaneously and respectively on the left display means (41) and on the right display means (42).

Abstract: An aircraft system includes a visual display system; a printer; and a flight management system coupled to the visual display system and the printer. The flight management system includes a processor and a plurality of data sources coupled to the processor. The processor includes a crew interface module coupled to the plurality of data sources, a display driver coupled to the crew interface module and the visual display system, and a printer driver coupled to the crew interface module and the printer. The crew interface module is configured to generate a report from data from the data sources and to send the report to the visual display system via the display driver. The visual display system is configured to receive the report and to display the report.

Abstract: A method and a system for providing a sighting reticle oriented to aim at a target from a vehicle within an environment of the target are described. The method improves the situational awareness of the operator regardless of the orientation and motion of the aiming instrument. The method comprises providing a graphical image representing the environment seen from the vehicle when aiming at the target; determining a state of the vehicle with respect to a spatial reference point; overlaying the sighting reticle onto the graphical image, the sighting reticle indicating the target on the graphical image with respect to the spatial reference point, the sighting reticle comprising a marking defining the spatial reference point; positioning the sighting reticle to orient the marking based on the state of the vehicle; and displaying on a display device the sighting reticle positioned on the graphical image to enable aiming at the target.

Abstract: A method, system, and computer readable medium are provided for displaying air and ground surveillance information on a portable electronic device. The receipt of a plurality of surveillance messages is enabled for both air and ground vehicles on the portable electronic device. The portable electronic device is connected by a wireless connection to a surveillance server. A plurality of surveillance messages are received by the portable electronic device after establishing a communication link with the surveillance server. Surveillance information is extracted from the plurality of surveillance messages by the portable electronic device. The surveillance information is rendered on a display of the portable electronic device.

Abstract: A system and method of conveying missed approach procedures to a pilot are provided. The system and method include rendering a graphic representation of at least one leg of the missed approach procedure on a display. A determination is made as to whether the aircraft is at least substantially flying the at least one leg of the missed approach procedure. At least one visual characteristic of the rendered graphic is selectively varied based on the determination of whether the aircraft is at least substantially flying the at least one leg of the missed approach procedure.

Abstract: The object of the invention is in particular a method and a device for aiding in the control of systems installed on board an aircraft comprising at least one display device capable of displaying configuration parameters of the said aircraft and at least one associated acquisition device. After the state of the said aircraft has been determined (900), a plurality of elements to be displayed on the said at least one display device is selected (905), according to the said state of the said aircraft, in a predetermined set of elements comprising at least one parameter for configuration of the avionics, at least one parameter for configuration of support subsystems and at least one activatable representation of least one command of support subsystems of the said aircraft. The said plurality of elements is displayed on the said display device.

Abstract: A system and method of acquiring information from an image of a vehicle in real time wherein at least one imaging device with advanced light metering capabilities is placed aboard a vehicle, a computer processor means is provided to control the imaging device and the advanced light metering capabilities, the advanced light metering capabilities are used to capture an image of at least a portion of the vehicle, and image recognition algorithms are used to identify the current state or position of the corresponding portion of the vehicle.

Abstract: An aircraft management system displays a primary flight display screen. The primary flight display screen has a predetermined height and includes a horizontal situation indicator (HSI). The aircraft management system includes a processor and a memory device operatively coupled to the processor. The memory device includes programmed computer instructions that instruct the processor to display the HSI for an aircraft. The HSI includes a receding perspective to simulate a three-dimensional (3D) object.

Abstract: An apparatus and method for displaying photo realistic features (230, 232, 234) on a display (116) of an aircraft (218) include storing (302) a plurality of photo realistic features (230, 232, 234), the photo realistic features including at least one of terrain (230) and obstacle (232) features. A priority factor is determined (304) that is based on one of, for example, aircraft type, speed, and altitude, and a plurality of display state is prioritized (304) for each of the plurality of photo realistic features (230. 232, 234) in accordance with the priority factor. One of the first and second display states is displayed (308) for each of the plurality of photo realistic features (230, 232, 234) as determined by the prioritizing step (306).

Abstract: A method for monitoring airplane noise and emissions may include receiving a predetermined set of engine performance data for an airplane and receiving a predetermined set of airplane flight data for the airplane. The method may also include predicting at least one of a noise level and an emissions level from the airplane at each of a plurality of ground based noise and emissions monitoring stations based on the predetermined set of engine performance data and the predetermined set of airplane flight data. Each of the plurality of ground based noise and emissions monitoring stations is located at a predetermined geographic location along an expected flight path of the airplane.

Abstract: Disclosed is to an aircraft radiofrequency communication system. The system includes at least one at least one radiofrequency transceiver device that is configured to transmit and receive data according to a VDL mode 3 standard and to receive status information that relates to at least one radio link of the radiofrequency transceiver device and includes the status concerning the possibility of transmitting on a particular, selected frequency. In one embodiment, a man/machine interface unit is configured to display configuration information and at least a portion of the status information. In an alternative embodiment, at least one radiofrequency transceiver device is configured to further determine status information that represents a possibility of using the radiofrequency transceiver device in transmission.

Abstract: Monitoring systems, sensor nodes, and methods of operating a system for monitoring one or more operating conditions of a structure, are provided. An exemplary monitoring system includes one or more sensor nodes each including a power supply, a sensor configured to sense whether or not the power level of the power supply, and a communications interlace for communicating sensed operating conditions. The system also includes a controller in communication with the sensor nodes through a communication network to monitor the sensor nodes.

Abstract: Addressed are systems and methods for providing to pilots of landing aircraft real-time (or near real-time) information concerning runway conditions and aircraft-stopping performance to be encountered upon landing. The systems and methods contemplate using more objective data than utilized at present and providing the information in automated manner. Information may be obtained by using conventional ground-based runway friction testers or, advantageously, by using air-based equipment such as (but not limited to) unmanned aerospace vehicles (UAVs).

Abstract: Methods and systems for handling aircraft control information are disclosed. A system in accordance with one embodiment of the invention includes a display medium coupleable to a flight manager, with the flight manager configured to receive and direct instructions for automatically controlling aircraft functions at a future time during flight of the aircraft. The system can further include a display controller coupled to the display medium to present at least one operator activatable element at the display medium and update information presented at the display medium when the operator activates the operator activatable element. For example, the operator activatable element can include an icon presented at a computer display screen, and can be activated by a keystroke.

Abstract: Embodiments of the invention relate to a vehicle instrumentation systems and display systems employing multi-view displays in various land, water, air, and/or space vehicles. In one embodiment of the invention, an aircraft instrumentation system for a flight deck instrument panel includes at least one multi-view display configured to display at least two views, associating one view with a first crew member and the other view with a second crew member. In another embodiment of the invention, a standby instrument may be displayed on each of two multi-view displays such that a standby instrument is visible to each crew member at all times during aircraft operation.

Abstract: The present invention is an avionics instrument and mounting bracket. In particular, the present invention is directed to an avionics instrument that can be mounted in a variety of positions on an aircraft instrument panel. The mounting bracket preferably comprises a cylindrical interior and an exterior with squared sides and rounded corners. The bracket has an adjustment gap with first and second ports on opposing sides and an adjustment screw spanning the adjustment gap to adjust the tightness of the bracket. The front of the bracket preferably has four panel screw ports. The avionics instrument has a display panel mounted to a cylindrical electronics housing where the diameter of the housing is less than the length of the display panel. The display panel preferably has four positional modes of display and a control button for switching between the display modes. The cylindrical electronics housing is inserted into the bracket.

Abstract: A multi-product avionics control and display unit (CDU). In implementations, the CDU may include a display and a processor coupled with the display. The processor is configurable to operate in a first mode to cause the display to present standby primary flight information associated with the aircraft and a second mode to control and display operation of one or more aircraft systems associated with the aircraft.

Abstract: Systems and methods are provided for displaying information on a display device associated with an aircraft. A method comprises rendering a perspective view of terrain on a display device and obtaining sensor data for a sensing region overlapping at least a portion of the viewing region. The method further comprises obtaining tracking data associated with a first object located within the sensing region and correlating a first portion of the sensor data that corresponds to the first object with the tracking data. The method further comprises rendering a graphical representation of the first object on the display device, wherein positioning of the graphical representation of the first object with respect to the terrain is influenced by the correlation with first portion of the sensor data.

Abstract: Technologies are described herein for providing enhanced center and range control on an aircraft display. According to embodiments, a display mode is selected to display a map on the aircraft display. A range input for displaying the map in the selected display mode at a desired range and a centering input for centering on a predefined map location on the aircraft display are received. The range input and the centering input associated with the selected display mode are then stored. When the selected display mode is deselected and then reselected, the map is displayed on the aircraft display in the selected display mode according to at least one of the stored range input and the centering input associated with the selected display mode.

Abstract: The invention relates to a method for optimizing the flight of an aircraft comprising a flight management system, the said flight management system using a first cost index (CI1) and calculating a first speed setpoint (V1) on the basis of the first cost index (CI1), the said flight management system calculating (11), furthermore, a first prediction of remaining flight time (T1) and a first prediction of fuel consumption (EFOB1) on the basis of the first speed, the said method being characterized in that it comprises, furthermore, the following steps: the selection of a second cost index (CI2), the calculation (12) by the flight management system of a second speed setpoint (V2) on the basis of the second cost index (CI2), of a second prediction of remaining flight time (T2) and of a second prediction of consumption (EFOB2) on the basis of the second speed (V2), the calculation (13) of a discrepancy (?V) between the first and the second speed, of a discrepancy (?T) between the first prediction of remaining f

Abstract: Systems and methods for alerting a flight crew if a taxiing collision condition exists. An exemplary system on a host vehicle determines one or more first protection zones around other vehicles on the ground based on the received information about the other vehicles, determines a second protection zone around the host vehicle based on the stored information about the host vehicle and the sensor information and generates an alert, if any of the first protection zones occupies at least a portion of the same geographic area as the second protection zone. The received information includes position, ground speed, vehicle type information and heading or track information. The protection zones include a width dimension that is based on vehicle size information, a base length dimension that is based on the size information, and a variable component of the length dimension that is based on the ground speed.