A preload mechanism for an actuator is disclosed that includes a rotating element configured to rotate about a pivot. The rotating element has a first contact point that is configured to couple to the actuator such that contraction of the actuator displaces the first contact point such that the rotating element rotates from a first position to a second position. The preload mechanism also includes a bias element with a first end that is coupled to a second contact point of the rotating element and a second end configured to be pinned relative to the pivot. The bias element has a line of action extending from the second end through the first end. The line of action has an offset distance that is the minimum distance between the line of action and the pivot. The offset distance has a first value when the rotating element is in the first position and a second value when the rotating element is the second position, the second value being smaller than the first value.

An actuating mechanism for actuating a charging or fueling flap on a charging or fueling compartment received on or in a body component of a vehicle, wherein the charging or fueling flap is reversibly movable between a closed position and an open position, wherein a flap lock is provided for locking the charging or fueling flap in its closed position. The actuating mechanism includes a drive having a drive shaft, which is operatively connectable to the charging or fueling flap such that, upon rotation of the drive shaft, the charging or fueling flap is movable relative to the charging or fueling compartment. The actuating mechanism further includes a mechanical control or switching mechanism, which is configured such that, upon rotation of the drive shaft to manipulate the flap lock, a rotational movement of the drive shaft can be tapped with the aid of the mechanical control or switching mechanism.

An actuating mechanism for actuating a charging or fueling flap on a charging or fueling compartment received on or in a body component of a vehicle, wherein the charging or fueling flap is reversibly movable between a closed position and an open position, wherein a flap lock is provided for locking the charging or fueling flap in its closed position. The actuating mechanism includes a drive having a drive shaft, which is operatively connectable to the charging or fueling flap such that, upon rotation of the drive shaft, the charging or fueling flap is movable relative to the charging or fueling compartment. The actuating mechanism further includes a mechanical control or switching mechanism, which is configured such that, upon rotation of the drive shaft to manipulate the flap lock, a rotational movement of the drive shaft can be tapped with the aid of the mechanical control or switching mechanism.

The present disclosure relates to a refrigerator including a latch device configured to couple or separate the second door to or from the first door, wherein the latch device includes a fixing member disposed on the first door, a locking member provided on the second door to be coupled or separated from the fixing member, and an input member provided on the second door to be rotatable in the left and right directions, and wherein the locking member rotates in a direction of being separated from the fixing member when the input member rotates in the left direction, and the locking member rotates in the direction of being separated from the fixing member when the input member rotates in the right direction.

A sliding door latch system and method is disclosed herein. The sliding door latch system is used to prevent movement of a sliding door between a closed position and an open position relative to a fixed door frame. The device may be installed as a secondary safety latch on a sliding door having a primary latch that is located at an elevation within the reach of the child. The device may be installed at an elevation above the reach of the child, but readily within the reach of an adult user. The sliding door latch includes a latch arm located outside the sliding door to simplify installation. The latch arm is user-locatable in a latched position, a momentarily released position, and a held-in-release position.

A sliding door latch system and method is disclosed herein. The sliding door latch system is used to prevent movement of a sliding door between a closed position and an open position relative to a fixed door frame. The device may be installed as a secondary safety latch on a sliding door having a primary latch that is located at an elevation within the reach of the child. The device may be installed at an elevation above the reach of the child, but readily within the reach of an adult user. The sliding door latch includes a latch arm located outside the sliding door to simplify installation. The latch arm is user-locatable in a latched position, a momentarily released position, and a held-in-release position.

A storage console includes a housing with a storage chamber, two closure members connected to the housing, an actuator movably arranged in the housing and a latch mechanism rotatably connected to the housing. The two closure members can be rotated to open or close the storage chamber. The latch mechanism includes two latch members and a synchronizer connected between the two latch members. The movement of the actuator actuates the two latch members to rotate to a lock position in which the two latch members engage with the two closure members or a release position in which the two latch members are separated from the two closure members. The two closure members of the storage console can be opened synchronously by use of the actuator and closed independently of each other.

A gate latch pull system for a swinging gate and gate post. A gate latch with pivotal latch lever is mounted on a gate post and a latch bar on an inside edge of a swinging gate. A T shaped lever with first and second lever arms and a swinging base is pivotally mounted on the gate post above the gate latch. A vertical linkage connectable between bottom of swinging base and top of the pivotal latch lever, with the linkage adjustable in length during connection of the base and the latch lever such that when the latch lever is in a latched position and the swinging base is vertical, the linkage has flexibility, slack and weight enough to provide additional downward weight bias to pivotal motion of the latch lever.

An intelligent lock and latch system which may include a housing that can be coupled to a post. The system employs a latch pin that can coupled to a gate and used in connection with the housing to secure the gate. The housing can further comprise a front cavity, a back cavity, one or more mounting holes, a slot, and a recess. The housing can be coupled to the post by one or more fasteners through the housing's mounting holes or using a mounting adapter. The intelligent lock and latch system can further comprise a back cover supporting gears, an electrical system and motor to power the gears, and a keypad to operate the system that be a standalone system or can communicate through wireless communication to a hub or mobile device.

An intelligent lock and latch system which may include a housing that can be coupled to a post. The system employs a latch pin that can coupled to a gate and used in connection with the housing to secure the gate. The housing can further comprise a front cavity, a back cavity, one or more mounting holes, a slot, and a recess. The housing can be coupled to the post by one or more fasteners through the housing's mounting holes or using a mounting adapter. The intelligent lock and latch system can further comprise a back cover supporting gears, an electrical system and motor to power the gears, and a keypad to operate the system that be a standalone system or can communicate through wireless communication to a hub or mobile device.