A vehicle seating assembly includes a seat, a seatback, and a lower leg support. The seat includes a forward end and a rearward end. The seatback is pivotably coupled to the seat. The lower leg support includes an interior surface and an exterior surface. The lower leg support is rotatably coupled to the forward end of the seat and is movable between a stowed position and a deployed position. The stowed position of the lower leg support places the lower leg support in an area below the seat. The stowed position of the lower leg support forms an acute angle with the seat. A linkage assembly is coupled to an underside of the seat and the interior of the lower leg support. The linkage assembly is responsible for transitioning the lower leg support between the stowed position and the deployed position.

A vehicle seating assembly includes a frame, a front closeout panel supported on the frame and an articulating flexmat assembly operably coupled with at least one of the front closeout panel and the frame. The articulating flexmat assembly includes an upper flexmat extending from a first side of the frame to a second side of the frame. The upper flexmat includes an upper cable coupled with the upper flexmat and an upper cable regulating motor operably coupled with the upper cable. The articulating flexmat assembly also includes a lower flexmat extending from the first side of the frame to the second side of the frame. The lower flexmat includes a lower cable coupled with the lower flexmat and a lower cable regulating motor operably coupled with the lower cable.

A vehicle seating assembly is provided that includes a seat base, a seat back pivotally coupled to the seat base and having a front portion and a rear portion, and an actuator operable to change a position of the seating assembly. The assembly also includes a capacitive proximity sensor located on the seat back and configured to detect a user touch command and a user pressure command, and a controller for receiving the user touch command and pressure command and controlling the actuator to change a position of the seating assembly based on a user input.

A vehicle seating assembly includes a frame, a front closeout panel supported on the frame and an articulating flexmat assembly operably coupled with at least one of the front closeout panel and the frame. The articulating flexmat assembly includes an upper flexmat extending from a first side of the frame to a second side of the frame. The upper flexmat includes an upper cable coupled with the upper flexmat and an upper cable regulating motor operably coupled with the upper cable. The articulating flexmat assembly also includes a lower flexmat extending from the first side of the frame to the second side of the frame. The lower flexmat includes a lower cable coupled with the lower flexmat and a lower cable regulating motor operably coupled with the lower cable.

An electric lock for a fold-down seat of a motor vehicle is situated inside a housing. The lock includes a locking means, a blocking element, a transmission lever attached to the blocking element so as to move it between a position of blocking the locking means in the catch retention position and a position in which it is effaced with respect to the movement of the locking means. The lock includes an actuator comprising an electric motor, the actuator being able to move the transmission lever. The transmission lever of the lock is able to move about an axis of rotation and has two arms extending radially from the axis, the first arm at its end having a handle and the second arm at its end having a means of attachment to the blocking element.

Provided is a belt assist device having a compact configuration and being configured to move a seatbelt to an easily reachable position. A vehicle seat includes a belt assist device attached to a lateral portion of a seat back and configured to move a portion of a seatbelt placed on the lateral portion to the easily reachable position. The belt assist device includes a rotary member attached to a recessed housing portion of the lateral portion via a rotary shaft and configured to rotate up and down between a housing position at which the rotary member is housed in the seat back and a protruding position at which the rotary member rotates to protrude forward of the seat back to push out a portion of the seatbelt. The rotary member is disposed forward of a belt guide provided at the periphery of an upper end of the seat back.

A circuit arrangement for controlling a system, and a system having a circuit arrangement, both suitable for use with a lumbar support with at least two air cushions, may include actuators, voltage supply paths, and electronic switching elements.

A seat including a backrest defining a first surface and a second surface, the second surface including an opening, the backrest including a table movable between a folded position in which the table closes off the opening, and a deployed position in which the opening is clear, the backrest including a locking device operable between a locked configuration and an unlocked configuration, the locking device being configured, in the locked configuration, to keep the table in its folded position, and, in the unlocked configuration, to allow a movement of the table toward its deployed position, wherein the locking device includes a lock that can be actuated in order to operate the locking device between the locked configuration and the unlocked configuration.

Actuators can be used in controlling a seat surface of a vehicle seat. The actuators can have an outer skin in connection with a hinge assemblies. The actuators can include a shape-memory material (SMM) member operatively connected to the hinge assemblies. The SMM member can be a shape-memory alloy (SMA) wire. The SMM member can change from a first configuration to the second configuration in response to an activation input, such as heat. The input can be delivered to the SMM member upon detecting an activation condition, such as detection of lateral acceleration. The actuators are operatively positioned relative to a seat surface such that, when the SMM member changes configuration, actuator causes the seat surface to morph.

Provided is a belt assist device having a compact configuration and being configured to move a seatbelt to an easily reachable position. A vehicle seat includes a belt assist device attached to a lateral portion of a seat back and configured to move a portion of a seatbelt placed on the lateral portion to the easily reachable position. The belt assist device includes a rotary member attached to a recessed housing portion of the lateral portion via a rotary shaft and configured to rotate up and down between a housing position at which the rotary member is housed in the seat back and a protruding position at which the rotary member rotates to protrude forward of the seat back to push out a portion of the seatbelt. The rotary member is disposed forward of a belt guide provided at the periphery of an upper end of the seat back.