Abstract: A thoracic support for a seat back of a seat is provided. The thoracic support structure is pivotally attached to the seat back and pivots between a first position and a second position. In the second position the support structure supports at least a portion of the thoracic region of the user's spine. An actuator disposed between a support surface and the support structure pivots the support structure from the first position to the second position upon actuation.

Abstract: A vehicle seat adjustment assembly has an actuator adapted to move a component of the vehicle seat assembly, and a generally planar sensor array in communication with the controller and accessible from an outer surface of the vehicle seat assembly. The sensor array has a plurality of adjacent sensors accessible from an outer surface of the vehicle seat assembly. A controller is in communication with the actuator for controlling the actuator and in communication with the sensor array. The controller is configured to control the actuator to move the component in response to receiving a signal indicative of a touch input of the sensor array by a user such that the movement of the component correlates with the input to the sensor array.

Abstract: A thoracic support for a seat back of a seat is provided. The thoracic support structure is pivotally attached to the seat back and pivots between a first position and a second position. In the second position the support structure supports at least a portion of the thoracic region of the user's spine. An actuator disposed between a support surface and the support structure pivots the support structure from the first position to the second position upon actuation.

Abstract: A vehicle seat controller is provided and configured to receive an input indicative of a seat back having pivoted forward to a predetermined position. The vehicle seat controller conveys a signal to an actuator to pivot a head restraint in response to the input. Another vehicle seat controller is provided and configured to receive an input indicative of a seat back having pivoted rearward to a predetermined position. The vehicle seat controller conveys a signal to an actuator to pivot a head restraint in response to the input. Another vehicle seat controller is provided and configured to receive an input indicative of a rear seat assembly having adjusted to a slouch position. The vehicle seat controller conveys a signal to an actuator to stow a head restraint of a front seat assembly in response to the input.

Abstract: A vehicle seat adjustment assembly has an actuator adapted to move a component of the vehicle seat assembly, and a generally planar sensor array in communication with the controller and accessible from an outer surface of the vehicle seat assembly. The sensor array has a plurality of adjacent sensors accessible from an outer surface of the vehicle seat assembly. A controller is in communication with the actuator for controlling the actuator and in communication with the sensor array. The controller is configured to control the actuator to move the component in response to receiving a signal indicative of a touch input of the sensor array by a user such that the movement of the component correlates with the input to the sensor array.

Abstract: An adjustable vehicle head restraint assembly is provided with a post mounted in a vehicle proximate to a seat back. A transverse shaft is mounted to the post. A head restraint is pivotally connected to the shaft. A series of teeth are provided on the head restraint. A locking mechanism is mounted to the shaft for translation in a transverse direction for engagement with the teeth. An actuator cooperates with the locking mechanism for disengaging the mechanism from the series of teeth for permitting adjustment of a tilt of the head restraint. A head restraint assembly is provided with a partial ring gear mounted to the head restraint. A sector gear is mounted to a transverse shaft in engagement with the partial ring gear. The actuator translates one of the partial ring gear and the sector gear for disengaging the gears and permitting adjustment of the tilt.

Abstract: A vehicle seat assembly is provided with a support structure and a head restraint supported by the support structure and being movable relative to the support structure between a first position and a second position. An actuator is connected to the head restraint for moving the head restraint, and a controller is in communication with the actuator. A sensor array is supported by one of the support structure and the head restraint and in communication with the controller. The sensor array has a first region and a second region. The sensor array is configured to sense an input of the first region and second region being sequentially activated. The sensor array communicates the input to the controller, and the controller causing the actuator to move the head restraint.

Abstract: A vehicle seat with an adjustable head restraint assembly is provided with a controller configured to receive an instruction signal to actuate a head restraint from a use position to a stowed position. A detection signal indicates whether an object is within a predetermined range of the head restraint. A stow signal is transmitted to an actuator to actuate the head restraint to the stowed position in response to the instruction signal and in response to the detection signal indicating that an object is not within the predetermined range of the head restraint. A use signal is transmitted to the actuator to maintain the head restraint in the use position in response to the instruction signal and in response to the detection signal indicating that an object is within the predetermined range of the head restraint.

Abstract: A vehicle seat controller is provided and configured to receive an input indicative of a seat back having pivoted forward to a predetermined position. The vehicle seat controller conveys a signal to an actuator to pivot a head restraint in response to the input. Another vehicle seat controller is provided and configured to receive an input indicative of a seat back having pivoted rearward to a predetermined position. The vehicle seat controller conveys a signal to an actuator to pivot a head restraint in response to the input. Another vehicle seat controller is provided and configured to receive an input indicative of a rear seat assembly having adjusted to a slouch position. The vehicle seat controller conveys a signal to an actuator to stow a head restraint of a front seat assembly in response to the input.

Abstract: A head restraint actuation system is provided having a receiver configured for receiving an image signal, a transmission status signal, a head restraint request signal and a seat information signal. A mirror controller is configured for communicating with the receiver for analyzing the received signals and selecting a rearview mirror mode. A user interface is configured for communicating with the mirror controller for displaying the image signal based on the selection of a first mode, and for enabling transmission of a head restraint request to the mirror controller based on the selection of a second mode. A transmitter is configured for communicating with the mirror controller for transmitting the head restraint request to a seat controller based on the selection of the second mode. A head restraint actuator receives the head restraint request and actuates a corresponding head restraint.

Abstract: A vehicle seat with an adjustable head restraint assembly is provided with a controller configured to receive an instruction signal to actuate a head restraint from a use position to a stowed position. A detection signal indicates whether an object is within a predetermined range of the head restraint. A stow signal is transmitted to an actuator to actuate the head restraint to the stowed position in response to the instruction signal and in response to the detection signal indicating that an object is not within the predetermined range of the head restraint. A use signal is transmitted to the actuator to maintain the head restraint in the use position in response to the instruction signal and in response to the detection signal indicating that an object is within the predetermined range of the head restraint.

Abstract: An adjustable head restraint assembly for a vehicle seat is provided with a pair of shells. Each shell is sized to mate with the other and collectively retain a pair of posts therebetween. A frame adapted to mate with the pair of shells for retaining the pair of shells upon the pair of posts. A locking mechanism is provided on at least one of the frame and the pair of shells for locking the pair of shells and the frame to the pair of posts, and for permitting adjustment of the pair of shells and the frame along the posts.

Abstract: A vehicle head restraint assembly is provided with a cross member. A head restraint is supported by the cross member. A fixed locking member is mounted within the head restraint. A latch is moveably mounted on the cross member at a first latch position and at a second latch position. An actuator is mounted within the head restraint to move the latch between the first latch position and the second latch position. The head restraint is pivotable when the latch is in the second latch position. Another vehicle head restraint assembly is provided with a lateral support rod and a head restraint pivotally mounted thereon. A locking member is pivotally mounted within the head restraint. A latch is mounted on the support rod. An actuator disengages the locking member from the latch. A biasing member pivots the head restraint upon disengagement of the latch and the locking member.

Abstract: A vehicle seat assembly is provided with a support structure and a head restraint supported by the support structure and being movable relative to the support structure between a first position and a second position. An actuator is connected to the head restraint for moving the head restraint, and a controller is in communication with the actuator. A sensor array is supported by one of the support structure and the head restraint and in communication with the controller. The sensor array has a first region and a second region. The sensor array is configured to sense an input of the first region and second region being sequentially activated. The sensor array communicates the input to the controller, and the controller causing the actuator to move the head restraint.

Abstract: A foldable head restraint assembly includes a mounting subassembly, a structural shell, and a locking plate. The mounting subassembly supports the structural shell and includes a first support post, a second support post, a cross member, and a latch rigidly. The cross member is attached to the first and second support posts and to the latch. The folding motion of the head restraint is initiated by movement of the locking plate which is positionable at a first plate position for engaging the latch and at a second plate position for releasing the latch. The structural shell is pivotable about the mounting subassembly when the latch plate is in the second plate position.

Abstract: A vehicle head restraint includes a head restraint frame having at least one post for attaching the head restraint to a seat back. The head restraint is pivotable relative to post. The head restraint also includes a spring clip attached to the head restraint frame and a stop rigidly held relative to the post, such that the stop contacts the spring clip when the head restraint in positioned in an upright position.

Abstract: An adjustable vehicle head restraint assembly is provided with a post mounted in a vehicle proximate to a seat back. A transverse shaft is mounted to the post. A head restraint is pivotally connected to the shaft. A series of teeth are provided on the head restraint. A locking mechanism is mounted to the shaft for translation in a transverse direction for engagement with the teeth. An actuator cooperates with the locking mechanism for disengaging the mechanism from the series of teeth for permitting adjustment of a tilt of the head restraint. A head restraint assembly is provided with a partial ring gear mounted to the head restraint. A sector gear is mounted to a transverse shaft in engagement with the partial ring gear. The actuator translates one of the partial ring gear and the sector gear for disengaging the gears and permitting adjustment of the tilt.

Abstract: Multiple vehicle seats are disclosed with active head restraint systems that receive an input force from an occupant during an impact by a torso support, which consequently actuates a linkage that translates a head restraint upward and forward to the head of the occupant. In one embodiment, the torso support has a translatable connection with the seatback frame and another translatable connection with the linkage. In another embodiment, a torso support is pivotally connected to a pair of links which are each pivotally connected to the frame. In yet another embodiment, the seatback frame includes a structural wire, which provides pivotal connections for two of the links of the linkage.

Abstract: A head restraint actuation system is provided having a receiver configured for receiving an image signal, a transmission status signal, a head restraint request signal and a seat information signal. A mirror controller is configured for communicating with the receiver for analyzing the received signals and selecting a rearview mirror mode. A user interface is configured for communicating with the mirror controller for displaying the image signal based on the selection of a first mode, and for enabling transmission of a head restraint request to the mirror controller based on the selection of a second mode. A transmitter is configured for communicating with the mirror controller for transmitting the head restraint request to a seat controller based on the selection of the second mode. A head restraint actuator receives the head restraint request and actuates a corresponding head restraint.

Abstract: A vehicle head restraint assembly is provided with a cross member. A head restraint is supported by the cross member. A fixed locking member is mounted within the head restraint. A latch is moveably mounted on the cross member at a first latch position and at a second latch position. An actuator is mounted within the head restraint to move the latch between the first latch position and the second latch position. The head restraint is pivotable when the latch is in the second latch position. Another vehicle head restraint assembly is provided with a lateral support rod and a head restraint pivotally mounted thereon. A locking member is pivotally mounted within the head restraint. A latch is mounted on the support rod. An actuator disengages the locking member from the latch. A biasing member pivots the head restraint upon disengagement of the latch and the locking member.