A door component has a damper device with two connection units that can be moved relative to each other for damping a door movement of a door of a vehicle. The damper device contains a magnetorheological fluid, as an operating fluid, and a cylinder unit having a first chamber and a second chamber. The two chambers are separated from each other by a piston which is provided with a damping valve. The damper device has a connection which is constructed for coupling to a drive. The damper device can be moved in an active manner at least from a first position into a second position by the drive which is coupled via the connection.

A powered vehicle closure system includes a controller that is configured to control a force of a powered actuator to provide smooth opening and/or closing operations.

A power swing door actuator for moving a passenger swing door relative to a body portion of a motor vehicle. The power swing door actuator includes a housing rigidly fixed to the swing door, a motor mounted to the housing, a connector link having a first end pivotably coupled to the vehicle body portion and a second end pivotably coupled to a drive nut of a spindle drive mechanism. A leadscrew of the spindle drive mechanism is rotatably driven by the motor for causing relative translational movement between the drive nut and the leadscrew which, in turn, results in pivoting movement of the connector link while the vehicle door swings between open and closed positions in response to selective actuation of the motor. The power swing door actuator is further equipped with an integrated door check mechanism.

A vehicle door control system is provided, and includes a body hinge member connected to the vehicle body, a door hinge member connected to the door, a brake and a control system. The brake includes a plate pack that includes a plurality of body brake plates connected to the body hinge member, and interleaved with a plurality of door brake plates connected to the door hinge member. The plate pack is positionable in a braking state in which the body brake plates and the door brake plates are frictionally engaged with one another to provide a first resistance to relative rotation therebetween so as to hold the vehicle door in a selected position, and a release state in which the body brake plates and the door brake plates provide a second resistance to relative rotation therebetween that is less than the first resistance.

Electronic door stop devices, an electronic door stop remote broadcast device, and a visual lockdown notification and alert device are disclosed. The electronic door stop devices include a sound-activated remote release electronic door stop that automatically detects a particular sound and releases a propped open door and a silent broadcast signal-activated electronic door stop that provides automatic closing of propped open doors, by both silent broadcast signal and particular sound detection. The electronic door stop remote broadcast device broadcasts a wireless data signal to multiple silent broadcast signal-activated electronic door stops to automatically and concurrently release any doors propped open by the silent broadcast signal-activated electronic door stops. The visual lockdown notification and alert device flashes an LED visual alert in silent mode or sound-activated.

Method and apparatus are disclosed for vehicle door assistance. An example vehicle includes a solenoid between a frame of the vehicle and a door, a restraint control module with an accelerometer to provide a roll angle and a pitch angle of the vehicle; and a body control unit. The body control unit determines a door adjustment force based on the roll and pitch angles and personal characteristics of an occupant, and when a door is moving, applies the door adjustment force with the solenoid.

A vehicle door device includes: a braking control unit applying a braking force to a swing door of a vehicle by controlling an operation of a braking device; and an action position detection unit detecting an action position of the swing door. The braking control unit sets a strong opening prevention boundary on a closing direction side from a fully open position as a mechanical opening action limit of the swing door and applies a braking force to the swing door that opens on an opening direction side from the strong opening prevention boundary.

A power swing door actuator for moving a passenger swing door relative to a body portion of a motor vehicle. The power swing door actuator includes a housing rigidly fixed to the swing door, a motor mounted to the housing, a connector link having a first end pivotably coupled to the vehicle body portion and a second end pivotably coupled to a drive nut of a spindle drive mechanism. A leadscrew of the spindle drive mechanism is rotatably driven by the motor for causing relative translational movement between the drive nut and the leadscrew which, in turn, results in pivoting movement of the connector link while the vehicle door swings between open and closed positions in response to selective actuation of the motor. The power swing door actuator is further equipped with an integrated door check mechanism.

In an aspect, a door control system is provided for a vehicle door and includes a pushrod and a locking device. The pushrod has a first end connected to one of the vehicle body and the vehicle door. At least a portion of the locking device is mounted to the other of the vehicle body and the vehicle door. The locking device includes a leadscrew, a leadscrew nut mounted on the leadscrew, a housing including a guide path, and a brake. The pushrod has a second end connected to the leadscrew nut. The leadscrew nut is constrained against rotation but is slideable along the guide path by movement of the pushrod, which causes rotation of the leadscrew. The brake is positionable in a braking position in which the brake prevents rotation of the leadscrew, and a release position in which the brake permits rotation of the leadscrew.

Electronic door stop devices and an electronic door stop remote broadcast device are disclosed. The electronic door stop devices include a sound-activated remote release electronic door stop that automatically detects a particular sound and closes a propped open door and a silent broadcast signal-activated electronic door stop that provides automatic closing of propped open doors, by both silent broadcast signal and particular sound detection. The electronic door stop remote broadcast device broadcasts a wireless data signal to multiple silent broadcast signal-activated electronic door stops to automatically and concurrently close any doors propped open by the silent broadcast signal-activated electronic door stops. The sound-activated remote release electronic door stop is activated by an emergency alarm sound that a receiver of the sound-activated remote release electronic door stop can distinguish from other sounds and release the door automatically to achieve closure for fire integrity and intruder prevention.