Abstract: An oxygen generator outlet manifold assembly that includes an outlet manifold and an end cover. The outlet manifold includes a main body portion with inner and outer surfaces and at least a first hose connector that includes an outlet defined therein extending from the main body portion. The main body portion defines a main body portion interior that includes a connection opening defined in the inner surface, a ring chamber, a flow space and a distribution chamber. An annular ring is positioned in the main body portion chamber interior and separates the ring chamber from the distribution chamber. The end cover includes a generator outlet portion extending therefrom that is received in the connection opening. The generator outlet portion includes an outlet valve having an open and a closed state and includes an interior chamber that cooperates with the ring chamber to define an outlet chamber.

Abstract: A passenger service unit assembly that includes a frame that defines at least an oxygen opening and a service opening, an oxygen mask housing positioned adjacent the oxygen opening, an oxygen mask housing cover positioned to cover the oxygen opening, and a service cover positioned to cover the service opening. An oxygen mask that is movable between a stowed position and a deployed position is positioned in the oxygen mask housing. The oxygen mask housing cover maintains the oxygen mask in the stowed position. The oxygen mask housing cover is movable between a closed position and an open position. When the oxygen mask housing cover is moved to the deployed position, the oxygen mask drops to the deployed position via gravity. The service cover is movable between a closed position and an open position and includes at least a first passenger service unit component associated therewith.

Abstract: Described are airbag control units having a radio-frequency identification transceiver, at least one battery pack, at least one inflator driver electrically connected to an airbag module, and one or more processors in communication with the radio-frequency identification transceiver, the battery pack, and the inflator driver. Alternatively, the airbag control unit includes signal conditioning hardware in communication with the radio-frequency identification transceiver, the battery pack, and the inflator driver. The airbag control unit retrieves a signal from the battery pack, analyzes the signal to determine battery status and/or voltage, transmits a signal to the inflator driver to perform an airbag status check, detects and analyzes the signal from the inflator driver to determine a status of the airbag module, and transmits the results to the radio-frequency identification transceiver for communication to a radio-frequency identification reader.