An active locking system of a movable element for a thrust reverser of an aircraft nacelle includes an active locking device of the movable element, movable between a locking position and an unlocking position, an actuator of the locking device controlled by a command for actuating the locking device, a blocking device for blocking the locking device in the unlocked position, movable between a blocking position and an unblocking position, and a device for displacing the blocking device. The actuation command controls the closure of the movable element, and the device for displacing the blocking device displaces the blocking device in the unblocking position when the movable element is at a predetermined position.

An active locking system of a movable element for a thrust reverser of an aircraft nacelle includes an active locking device of the movable element, movable between a locking position and an unlocking position, an actuator of the locking device controlled by a command for actuating the locking device, a blocking device for blocking the locking device in the unlocked position, movable between a blocking position and an unblocking position, and a device for displacing the blocking device. The actuation command controls the closure of the movable element, and the device for displacing the blocking device displaces the blocking device in the unblocking position when the movable element is at a predetermined position.

One example embodiment is an armored vehicle door quick-release mechanism includes a handle, a slide lock latch, and an actuator mechanism. The handle is coupled to the slide lock latch. The movement of the handle in a first direction causes the slide lock latch to move in a first direction to a first position so that the slide lock latch is adapted to attach the vehicle door to the actuator mechanism adapted to open and close the vehicle door. A movement of the handle in a second direction causes that slide lock latch to move in a second direction to a second position to detach the vehicle door from the actuator mechanism.

An electrically-powered accessory for vehicles includes a vehicle structure. A connector mechanically connects an electrically-powered accessory to vehicle structure. The connector includes a movable lock member that mechanically locks the electrically-powered accessory to the vehicle structure when the movable lock member is in a locked position. The movable lock member causes the electrically-powered accessory to be electrically connected to an electrical power supply of the vehicle when the movable lock member is in the locked position, and electrically disconnects the electrically-powered accessory from the vehicle power supply when the movable lock member is in the unlocked position.

An electrically-powered accessory for vehicles includes a vehicle structure. A connector mechanically connects an electrically-powered accessory to vehicle structure. The connector includes a movable lock member that mechanically locks the electrically-powered accessory to the vehicle structure when the movable lock member is in a locked position. The movable lock member causes the electrically-powered accessory to be electrically connected to an electrical power supply of the vehicle when the movable lock member is in the locked position, and electrically disconnects the electrically-powered accessory from the vehicle power supply when the movable lock member is in the unlocked position.

Embodiments of systems and methods for operating a power tailgate system include overload checking a tailgate latched by a latch that is in a full-latching position, connected with a latch actuator, and activated by the latch actuator for non-revertible movement in a latching direction. Overload checking the tailgate includes operating the latch actuator to over-stroke the latch, identifying an over-stroking load on the latch actuator, and based on the over-stroking load on the latch actuator, determining whether the tailgate is overloaded or not overloaded. Over-stroking the latch includes moving the latch in the latching direction from the full-latching position to an over-stroking position, and the over-stroking load on the latch actuator is associated with its operation to over-stroke the latch.

Embodiments of systems and methods for operating a power tailgate system include overload checking a tailgate latched by a latch that is in a full-latching position, connected with a latch actuator, and activated by the latch actuator for non-revertible movement in a latching direction. Overload checking the tailgate includes operating the latch actuator to over-stroke the latch, identifying an over-stroking load on the latch actuator, and based on the over-stroking load on the latch actuator, determining whether the tailgate is overloaded or not overloaded. Over-stroking the latch includes moving the latch in the latching direction from the full-latching position to an over-stroking position, and the over-stroking load on the latch actuator is associated with its operation to over-stroke the latch.

A lock assembly for use in a vehicle lock, such as on a truck tailgate. The lock assembly includes a single key cylinder which can concurrently control the locked/unlocked state of one or more door handles, thus rendering multiple handles simultaneously locked or unlocked. Such a lock assembly may provide manual control of access to a pickup truck bed, independently of the vehicle battery, thereby permitting the driver access even if the vehicle battery is dead.

A lock assembly for use in a vehicle lock, such as on a truck tailgate. The lock assembly includes a single key cylinder which can concurrently control the locked/unlocked state of one or more door handles, thus rendering multiple handles simultaneously locked or unlocked. Such a lock assembly may provide manual control of access to a pickup truck bed, independently of the vehicle battery, thereby permitting the driver access even if the vehicle battery is dead.

A tailgate opening/closing device has a simplified tailgate opening/closing structure, reduced manufacturing cost, reduced weight, and improved quality. The device includes a release gear configured to be rotated forwards and backwards by a rotational force from a motor, a cinching gear engaged with the release gear, a linkage mechanism configured to receive force from the cinching gear to rotate toward a claw, the claw being caught by the linkage mechanism to rotate together therewith so as to be engaged with a striker, and a pawl unit configured to be caught by the claw in the state in which the claw is engaged with the striker so as to restrict rotation of the claw and configured to allow rotation of the claw in a release operation direction only when the release gear rotates in the release operation direction.