Abstract: An aircraft flap deployment system has a track, a carriage supported by the track; an actuator operatively connected to the carriage for moving the carriage along the track between various carriage positions; a flap pivotally connected to the carriage and to a link such that each position of the carriage has a corresponding flap position; and a flap controller communicating with the actuator for controlling actuation of the actuator. In at least one carriage position, the flap is in an intermediate flap position at a negative flap angle and the actuator maintains the carriage and the flap in position. An aircraft wing assembly having the flap deployment system, an aircraft having the aircraft wing assembly, and a method for controlling a position of a flap of an aircraft are also disclosed.

Abstract: Apparatus and method for conditioning engine-heated air onboard an aircraft including a heat exchanger (140) at least partially disposed in a pylon structure (118) for supporting an engine (134) of the aircraft. The pylon heat exchanger (140) extracts heat from a flow (156) of engine-heated air. A flow (142) of ambient air is provided to the pylon heat exchanger (140) from a ram air inlet (150).

Abstract: Systems and methods of improving the operation of an aircraft during flight are disclosed. In one embodiment, the method comprises deploying spoilers as the speed of the aircraft approaches the maximum operating Mach number of the aircraft, and keeping the spoilers deployed when the speed of the aircraft is substantially at the maximum operating Mach number.

Abstract: An aircraft wing includes a groove extending along a length between a forward extremity and an aft extremity. A forward segment of the groove extends upwardly to the forward extremity. The forward extremity is a highest point of the groove. A flap carriage is mounted to the groove and displaceable therealong. A flap is pivotably attached to the flap carriage to define a flap pivot axis about which the flap is rotatable. The flap is displaceable with the flap carriage. An actuator has an arm being extendable between an extended position and a retracted position to displace the flap carriage along the groove. The flap carriage in the retracted position being disposed in the forward segment of the groove and the flap being rotated about the flap pivot axis to position the flap trailing edge in negative flap deployment.

Abstract: Apparatus for improving flow characteristics around aircraft wings by obstructing air flow through an aperture formed in a wing skin for a movable duct or track are disclosed. In one embodiment, the apparatus comprises a substantially rigid panel movable at least partially across the aperture for at least partially occluding the aperture and for accommodating movement of a slat track extending through the aperture. In another embodiment, the apparatus comprises a hinged panel configured to swing outwardly from an outer side of the wing skin toward an open position to accommodate movement of an anti-icing duct extending through the aperture and to swing toward a closed position at least partially occluding the aperture.

Abstract: A mobile platform with a passenger door system having stairs with one or more deployable lower steps and associated methods for deployment and/or stowing of such lower steps are disclosed. In one embodiment, the method comprises using movement of the door to drive a movement of a handrail associated with the stairs, and using the movement of the handrail to drive a movement of the one or more lower steps.

Abstract: A reclinable passenger seat including a base, a seat pan frame having a front end connected to the base via a first fixed pivot, a support arm having one end connected to the base via a second fixed pivot aft of the first fixed pivot, and a backrest frame having an upper backrest member and a lower backrest member. An opposed end of the support arm is pivotally connected to the lower backrest member at a first location spaced from the upper backrest member. A rear end of the seat pan frame is pivotally connected to the lower backrest member at a second location between the first location and the upper backrest member. The backrest frame and seat pan frame are configured to move simultaneously between a sitting configuration and a reclined configuration through pivoting motion about the fixed pivots and about the two locations.

Abstract: Systems, devices and methods for alerting a crew of an aircraft or other mobile platform of a relevant condition associated with the aircraft are disclosed. One exemplary method comprises receiving data indicative of an existence of the relevant condition associated with the aircraft; receiving data indicative of a substantially real-time value of a dynamic parameter associated with the relevant condition; and displaying an awareness-enhancing indication associated with the relevant condition in a display area of the crew alerting system of the aircraft. The awareness-enhancing indication comprises a textual message and a supplemental indication indicative of the substantially real-time value of the dynamic parameter associated with the relevant condition. In various embodiments, the supplemental indication may be textual or graphical. The supplemental indication may also be indicative of a target value of the dynamic parameter.

Abstract: Systems and methods for assisting a flight crew of an aircraft with controller-pilot data link communication (CPDLC) are provided. A display device defines a display area on a flight deck of the aircraft. A controller is operatively coupled to the display device and configured to control a presence of a CPDLC window containing a CPDLC message in the display area. A plurality of tactile buttons are disposed proximally to each other on a glare shield panel of the flight deck. The plurality of tactile buttons comprises a first tactile button operatively coupled to the controller for selectively instructing the controller to cause the presence of the CPDLC window in the display area by actuation of the first tactile button, and a second tactile button configured to permit the flight crew to respond to the CPDLC message by actuation of the second tactile button.

Abstract: A vehicle seat includes a seat with a seat pan and a backrest with a backrest bottom edge articulately being disposed adjacent to a seat pan rear edge. The seat pan and the backrest are positionable with respect to one another such that the seat is configurable into at least one of a taxi, takeoff and landing position, a napping position, and a sleeping position. A swivel is disposed beneath the seat. Base tracking also is disposed beneath the seat, permitting the seat to move in a lateral and a longitudinal direction. The seat also includes a first control to lock and unlock movement of the seat in lateral or longitudinal directions and a second control to lock and unlock the swivel. The swivel may be unlocked while movement of the seat in the lateral and the longitudinal direction is locked.

Abstract: Cabin air is managed in the aircraft as a function of the minimum requirements for defined air quality needs, temperature control needs, and cabin pressurization needs. Airflow may be varied dynamically as a function of aircraft or cabin altitude, and the minimum requirements for airflow may be determined in real time so as to dynamically set an airflow schedule.

Abstract: Systems and methods for automatically arming a steep approach function of an aircraft are disclosed. One exemplary method comprises automatically initiating arming of the steep approach function of the aircraft based on data (e.g., glide slope angle) associated with the approach procedure to be performed by the aircraft.

Abstract: A disclosed method reduces a wave drag on an airfoil traveling at a speed. At least a portion of the airfoil is configured to be selectively moveable between a first position and a second position. The first position is a neutral position, and the second position generates a shock wave near to the leading edge of the airfoil. The method includes the steps of maintaining the airfoil in the first position when the speed is less than a first limit and moving the airfoil to the second position when the speed is greater than a first limit.

Abstract: Apparatus and methods for actuating a double-slotted flap movably coupled to an aircraft wing are disclosed. An exemplary method comprises actuating a first panel of the double-slotted flap relative to a structure of the aircraft wing, using motion of the first panel to induce rotation of a slave screw, and using the rotation of the slave screw to actuate the second panel relative to the first panel.

Abstract: An aircraft divan includes a lateral bracket connecting between front and rear legs with lateral bracket front and rear ends, a first track defined by the lateral bracket between the lateral bracket front and rear ends, an upright, having upright top and bottom ends, a second track defined by the upright between the upright top and bottom ends, a seat pan having seat pan front and rear ends, the seat pan being slidingly connected to the first track adjacent to the seat pan rear end, and a backrest having backrest top and bottom ends, the backrest being slidingly connected to the second track adjacent to the backrest top end. The seat pan rear end is pivotably connected to the backrest adjacent to the backrest bottom end such that movement of the seat pan is transmitted to the backrest so as to move together between upright and berth positions.

Abstract: The present disclosure provides methods and system for controlling the operation of an aircraft aileron which comprises an inboard portion and an outboard portion. A velocity of the aircraft is determined. Then, based on the velocity of the aircraft, the aileron is caused to move in certain ways. Below a first velocity threshold, the inboard aileron portion and the outboard aileron portion are caused to move substantially in unison. Between the first velocity threshold and a second, greater, velocity threshold, the outboard portion of the aileron is caused to lock and the inboard portion of the aileron is caused to move independently from the outboard portion. Above the second velocity threshold, the inboard portion is caused to move substantially opposite from the outboard portion.

Abstract: A method and a distributed architecture for controlling functions of an aircraft comprising: a controller, an Input/Output (IO) node and a processor configured to display a graphical user interface component representing at least a portion of an aircraft cabin divided into at least two sections on the IO node and receive, by the IO node, a first and a second input from a user for selecting one of the at least two sections and selecting a preset of at least one controllable parameter respectively. Upon determining that the user requests a modification of the selected preset for the selected section, a preset setting menu including the at least one controllable parameter associated with the selected preset is displayed; a third input from the user for modifying the at least one controllable parameter is received and a modified preset based on the modified at least one controllable parameter is generated.

Abstract: Systems and methods for performing noise reduction in a vehicle comprising a noise reduction system and a plurality of zones are herein provided. A noise reduction criterion for the vehicle is obtained. A first one of the plurality of zones for which noise reduction is to be performed is determined, based on the noise reduction criterion. The noise-reduction system is controlled to perform noise reduction in the first zone, wherein performing noise reduction in the first zone causes the noise reduction system to effect a resultant adjustment in noise level in at least a second one of the plurality of zones.

Abstract: Systems and methods for deploying adjacent trailing edge flaps that are part of different flap assemblies of different stiffnesses are disclosed. An exemplary method comprises: deploying a first flap of a first flap assembly having a first stiffness by a first deployment amount and deploying a second flap adjacent the first flap by a second deployment amount where the deployment amount of the first flap part of the flap assembly of lower stiffness is greater than the second deployment amount of the second flap part of the flap assembly of higher stiffness. The difference in deployment amounts may be adapted to improve continuity between the first flap and the second flap when the first and second flaps are deployed and subjected to an aerodynamic load.