A motor vehicle door includes a door handle unit fixed on the inside on the door edge opposite a door hinge. The door handle unit is motorically pivotable between a folded-in and a folded-out position. In the folded-in position when the vehicle door is closed the door handle unit is arranged behind the vehicle door. In the folded-out position, the door handle unit protrudes laterally outwards by surrounding the door edge and is grippable to open the door. A door mover unit is configured to move the vehicle door in a closed state out of a closed position into a stand-by position, in which the door handle unit can be moved from the folded-in position into the folded-out position. A control unit has a signal input which, upon obtaining the opening signal, controls the door mover unit to move into the stand-by position and controls the door handle unit to pivot into the folded-out position.

Provided is a wire assembly for an anti-pinch sensor for a vehicle electrically connecting the anti-pinch sensor installed on one side of a door for the vehicle to detect the pinch between the door and a vehicle body with a controller configured to control an opening or closing of the door. The wire assembly includes: a lead wire unit connected to the anti-pinch sensor; a center wire unit having one end connected to the lead wire unit and installed on a folded portion of the door; and a connection wire unit having one end connected to the other end of the center wire unit, having the other end connected to the controller, and drawn out to the outside from the inside of the door through the door.

A door latch device for vehicles may configure a pop-up guide unit at a location far from a hinge portion on a door by integrally forming the pop-up guide unit in a latch unit for keeping a locking state of the door in a vehicle without a B pillar, preventing a mutual sweeping phenomenon of a door or vehicle body-side weather strip during a pop-up operation process of the door.

A vehicle door device includes a first link mechanism formed of first and second link arms having a first rotary coupling point with respect to a vehicle body and a second rotary coupling point with respect to a door of a vehicle, and a second link mechanism formed of the first and second link arms provided independently of the first and second link arms forming the first link mechanism. First and second doors respectively supported by the first and second link mechanisms open and close independently in different directions based on operations of the first and second link mechanisms. At least one of the first and second link arms forming the first link mechanism and the first and second link arms forming the second link mechanism is provided with a coupling length variable mechanism that allows a coupling length between the first and second rotary coupling points to vary.

A linear drive assembly for use with a vehicle including a vehicle body and a closure. The linear drive assembly may include a stationary portion and a translating portion. The translating portion may include a first end portion and a second end portion. The first end portion may be configured to pivot and translate about a vehicle attachment member. The second end portion may be configured to pivot and translate about a closure attachment member and be coupled to a cable operatively coupled to an actuator. When the second end translates about the closure attachment member, the cable may be pulled to actuate the actuator.

A linear drive assembly for use with a vehicle including a vehicle body and a closure. The linear drive assembly may include a stationary portion and a translating portion. The translating portion may include a first end portion and a second end portion. The first end portion may be configured to pivot and translate about a vehicle attachment member. The second end portion may be configured to pivot and translate about a closure attachment member and be coupled to a cable operatively coupled to an actuator. When the second end translates about the closure attachment member, the cable may be pulled to actuate the actuator.

A power-operated vehicle closure system includes a vehicle door equipped with a cinch assembly having a power actuator and a closure latch assembly having a latch mechanism and a latch cinch mechanism. Actuation of the power actuator in a first direction provides a power cinch operation to cause the latch cinch mechanism to cinch the latch mechanism. Actuation of the power actuator in a second direction provides a power ice breaking operation to cause the latch cinch mechanism to open the latch mechanism. The system includes a controller that receives signals indicating the positions of a ratchet and a pawl of the latch mechanism and controls the power actuator to operate the latch cinch mechanism in either the first or second direction.

A power-operated vehicle closure system includes a vehicle door equipped with a cinch assembly having a power actuator and a closure latch assembly having a latch mechanism and a latch cinch mechanism. Actuation of the power actuator in a first direction provides a power cinch operation to cause the latch cinch mechanism to cinch the latch mechanism. Actuation of the power actuator in a second direction provides a power ice breaking operation to cause the latch cinch mechanism to open the latch mechanism. The system includes a controller that receives signals indicating the positions of a ratchet and a pawl of the latch mechanism and controls the power actuator to operate the latch cinch mechanism in either the first or second direction.

Actuating unit for automotive applications, especially motor vehicle door locks (1), comprising a drive (2) and with a linear actuator (3, 4) which can be pressurised by the drive (2), wherein the drive (2) and the linear actuator (3, 4) are arranged at an angle, and especially at a right angle, to one another.

The disclosure relates to a safety assembly for preventing the opening of a trunk lock under predefined vehicle conditions, having a transmission element which is engaged by an interior-side actuating element and a trunk-side actuating element and which is coupled to a trunk lock, wherein a latch is provided which is adjustable between an actuating position, in which an actuating force can be transmitted from at least one of the actuating elements to the trunk lock, and a blocking position, in which an actuating force is not transmitted to the trunk lock, the latch having a gearing and a brushless electric motor associated with it, by means of which the latch can be transferred between the actuating position and the blocking position. The disclosure further relates to a method of controlling a latch of a safety assembly.