Abstract: An omni-clutch includes a rotatable input housing that rotates about an axis, and an input plate coupled to the rotatable input housing to rotate with the rotatable input housing. The device also includes an output shaft that extends through the rotatable input housing and along the axis, an output plate coupled to the output shaft to rotate with the output shaft about the axis, and a motor housing. The output shaft extends through the motor housing. The device further includes a clutch motor disposed at least partially within the motor housing, and a push housing to be moved axially along the axis via actuation of the clutch motor from a first axial position relative to the input plate and the output plate to a second axial position relative to the input plate and the output plate to impart axial force on the input plate and the output plate.

Abstract: A modular electrical circuit carrier (ECC) configured to be directly secured to an exterior surface of a vehicle latch housing, the modular electrical circuit carrier (ECC) including: a housing; a printed circuit board located within the housing, the printed circuit board having a connector configured for securement with a wire harness connector and a series of connectors, wherein the printed circuit board includes a microprocessor capable of operating as a latch controller, wherein the housing and the series of connectors are configured for direct securement to the exterior surface of the vehicle latch housing.

Abstract: A remote cinching actuator, which includes an integral motor wherein its rotation will drive the two stage drive gears system, that are coupled to a cable lever. This cable lever is mechanically attached to a cinch lever within the side door latch by the cable. The lever will rotate on its pivot and move the cinch drive link. A bearing attached to the cinch drive link will move during the cinching operation, traveling through a canal of a cinch override lever, to maintain the traveling course of the cinch drive link and, thereby, allowing the interaction between the cinch drive link and a claw to rotate the claw to its closed/primary position.

Abstract: A vehicle latch system, including: a latch assembly; an electronic control unit removably attached to an exterior of a housing of the latch assembly, the electronic control unit having a printed circuit board assembly secured into a housing of the electronic control unit, wherein the printed circuit board assembly when inserted into the housing of the electronic control unit is press fit into electrical communication with a first pair of terminals molded into the housing of the electronic control unit, wherein the first pair of terminals are configured to have an interference fit with a second pair of terminals molded into a housing of the latch assembly when the electronic control unit is secured to the latch assembly.

Abstract: A two-pull, automatic reset, latch system is configured to operate during a no-power scenario and a power scenario. The latch system includes a release system, a release lever, and a coupling lever. The release lever is pivotally engaged to a stationary structure about a first axis. The coupling lever pivots about a second axis offset from the first axis, and is adapted to couple the release lever to the release system during a no-power scenario and upon two actuations of the release lever. The coupling lever is further adapted to maintain decoupling of the release lever from the release system during a power scenario.

Abstract: A power release latching system with a service reset. A power release latching system, including: a housing; a service override lever rotatably mounted to the housing, the service override lever being accessible from an exterior of the housing; a motor for rotating a worm that interfaces to a release gear, the release gear having a cam profile that interfaces with a pawl release lever of the latching system, wherein rotation of the service override lever causes rotation of the release gear.

Abstract: A latch assembly, including: a manual release lever rotationally mounted to the latch assembly for movement about a first axis, the manual release lever being operably coupled to an inside release handle; a release link pivotally mounted to the manual release lever for movement about a second axis; a child lock lever rotationally mounted to the latch assembly for movement about a third axis; a gear rotationally mounted to the latch assembly for movement about a fourth axis, the gear being rotated by a motor that drives a worm that meshingly engages teeth of the gear; a child lock switch positioned to detect a position of the child lock lever; a gear home switch positioned to detect the position of the gear; and wherein the gear has a first cam surface configured to contact a cam surface of the child lock lever when the gear is rotated to a locked position and contact of the first cam surface with the cam surface of the child lock lever will rotate the child lock lever about the third axis and rotation of the

Abstract: A latching assembly providing two options or systems for electric release output and timing, while keeping the two systems as common with one another as possible. A vehicle latching assembly, including: a housing; a release lever pivotally mounted to the housing; a first gear train for actuating the release lever, the first gear train includes a first worm and a first release gear the first worm meshingly engages the first release gear; and a second gear train for actuating the release lever, the second gear train being interchangeable with the first gear train, the second gear train includes a second worm and a second release gear the second worm meshingly engages the second release gear, wherein the second gear train applies a greater amount of force to the release lever than the first gear train.

Abstract: A two-pull, automatic reset, latch system is configured to operate during a no-power scenario and a power scenario. The latch system includes a release system, a release lever, and a coupling lever. The release lever is pivotally engaged to a stationary structure about a first axis. The coupling lever pivots about a second axis offset from the first axis, and is adapted to couple the release lever to the release system during a no-power scenario and upon two actuations of the release lever. The coupling lever is further adapted to maintain decoupling of the release lever from the release system during a power scenario.

Abstract: A vehicle latch assembly, including: a pawl pivotally mounted to the vehicle latch assembly; a claw pivotally mounted to the vehicle latch assembly; a switch cam lever; a first switch; a second switch, the switch cam lever has a first cam profile configured to engage the first switch and a second cam profile configured to engage the second switch, the first cam profile engaging the first switch; and wherein the second cam profile engages the second switch when the vehicle latch assembly is in a secondary position.

Abstract: A latching system with a hall-effect sensor as described herein. A vehicle latch, including: a component movably secured to the latch; a magnet secured to the component; and a hall effect sensor positioned to detect a polarity of the magnet as the component moves, wherein the magnet is arranged with respect to the hall effect sensor so that a direction of the magnet's polarity (North and South) is parallel to the hall effect sensor as the component moves with respect to the hall effect sensor.

Abstract: A latch assembly, including: at least one moveable component rotationally mounted to the latch assembly; a magnet secured to the at least one moveable component; a hall effect sensor remote from the magnet; and a metal trace operably coupled to the hall effect sensor and configured to be magnetized by the magnet as the at least one moveable component rotates.

Abstract: A two-pull, automatic reset, latch system is configured to operate during a no-power scenario and a power scenario. The latch system includes a release system, a release lever, and a coupling lever. The manual release lever is pivotally engaged to a stationary structure about a first axis. The coupling lever pivots about a second axis offset from the first axis, and is adapted to couple the release lever to the release system during a no-power scenario and upon two manual actuations of the release lever. The coupling lever is further adapted to maintain decoupling of the release lever from the release system during a power scenario.

Abstract: A remote cinching actuator (40), which includes an integral motor (14) wherein its rotation will drive the two stage drive gears system (44, 46), that are coupled to a cable lever (42). This cable lever (42) is mechanically attached to a cinch lever (26) within the side door latch (10) by a cable. Said lever (26) will rotate on its pivot and move the cinch drive link (28). A bearing (54) attached to the cinch drive link (28) will move during the cinching operation, traveling through the canal of the cinch override lever (36), to maintain the traveling course of the cinch drive link and, thereby, allowing the interaction between said link and a claw (30) to rotate the latter to its closed/primary position.

Abstract: An override mechanism for a cinching latch assembly includes a claw rotatable between open and closed positions, the claw spring biased toward the opened position to allow opening of a latch. Also included is a cinch drive link rotatable between an override and non-override positions, the cinch drive link in operative contact with the claw in the non-override position and disengaged from the claw in the override position, wherein operative contact between the claw and the cinch drive link biases the cinch drive link toward the override position. Further included is a guide surface. Yet further included is a cinch override lever defining an opening, the bearing of the cinch drive link disposed within the opening and moveable within the opening. Also included is a cinch override pawl rotatable between an engaged condition and a disengaged condition, the engaged condition locking the cinch override lever.

Abstract: A lock mechanism for a vehicle latch includes a cable link. Also included is a pawl release link, the cable link and the pawl release link switchable between an engaged condition and a disengaged condition, the engaged condition allowed manual release of the vehicle latch, the disengaged condition preventing release of the vehicle latch. Further included is an electrically driven gear operatively coupled to the cable link and the pawl release link to reset the cable link and the pawl release link to the disengaged condition.

Abstract: A vehicle latch system, including: a latch assembly; an electronic control unit removably attached to an exterior of a housing of the latch assembly, the electronic control unit having a printed circuit board assembly secured into a housing of the electronic control unit, wherein the printed circuit board assembly when inserted into the housing of the electronic control unit is press fit into electrical communication with a first pair of terminals molded into the housing of the electronic control unit, wherein the first pair of terminals are configured to have an interference fit with a second pair of terminals molded into a housing of the latch assembly when the electronic control unit is secured to the latch assembly.

Abstract: A latching assembly providing two options or systems for electric release output and timing, while keeping the two systems as common with one another as possible. A vehicle latching assembly, including: a housing; a release lever pivotally mounted to the housing; a first gear train for actuating the release lever, the first gear train includes a first worm and a first release gear the first worm meshingly engages the first release gear; and a second gear train for actuating the release lever, the second gear train being interchangeable with the first gear train, the second gear train includes a second worm and a second release gear the second worm meshingly engages the second release gear, wherein the second gear train applies a greater amount of force to the release lever than the first gear train.

Abstract: A latch assembly, including: at least one moveable component rotationally mounted to the latch assembly; a magnet secured to the at least one moveable component; a hall effect sensor remote from the magnet; and a metal trace operably coupled to the hall effect sensor and configured to be magnetized by the magnet as the at least one moveable component rotates.

Abstract: A power release latching system with a service reset. A power release latching system, including: a housing; a service override lever rotatably mounted to the housing, the service override lever being accessible from an exterior of the housing; a motor for rotating a worm that interfaces to a release gear, the release gear having a cam profile that interfaces with a pawl release lever of the latching system, wherein rotation of the service override lever causes rotation of the release gear.