The subject matter of this specification can be embodied in, among other things, a lock apparatus that includes a latch hook having a catch at a first latch end, a first pivotal mount at a second latch end opposite the first latch end, and a second pivotal mount, a rotary actuator configured to selectably rotate a rotor shaft in a first rotary direction and in a second rotary direction opposite the first rotary direction, a rotor arm coupled to the rotor shaft at a first arm end and extending radially outward from the rotor shaft to a second arm end opposite the first arm end, and a link arm pivotably connected to the second arm end at a first link end, and pivotably connected to the second pivotal mount at a second link end opposite the first link end.

The subject matter of this specification can be embodied in, among other things, a lock apparatus that includes a latch hook having a catch at a first latch end, a first pivotal mount at a second latch end opposite the first latch end, and a second pivotal mount, a rotary actuator configured to selectably rotate a rotor shaft in a first rotary direction and in a second rotary direction opposite the first rotary direction, a rotor arm coupled to the rotor shaft at a first arm end and extending radially outward from the rotor shaft to a second arm end opposite the first arm end, and a link arm pivotably connected to the second arm end at a first link end, and pivotably connected to the second pivotal mount at a second link end opposite the first link end.

An actuating system for an actuatable door and to an actuatable door having such an actuating system. The actuating system comprises a rotatable latching shaft, a rotatable locking shaft, a latching device, comprising a latch, and a locking device. The latch is adapted to maintain the actuatable door in a closed position. The locking device comprises a locking cam, that is mounted to the locking shaft and that is adapted to engage with the latch in a closed and latched position, and a latch securing lever, that is driven by the locking cam and that is adapted to engage with the latch to maintain the latch in a closed and secured position.

An actuating system for an actuatable door and to an actuatable door having such an actuating system. The actuating system comprises a rotatable latching shaft, a rotatable locking shaft, a latching device, comprising a latch, and a locking device. The latch is adapted to maintain the actuatable door in a closed position. The locking device comprises a locking cam, that is mounted to the locking shaft and that is adapted to engage with the latch in a closed and latched position, and a latch securing lever, that is driven by the locking cam and that is adapted to engage with the latch to maintain the latch in a closed and secured position.

A system may include a door installed within a vehicle. The system may further include an electronically actuated linear actuator latch mechanism (a) installed in or on the door or (b) installed within the vehicle in proximity to the door. The electronically actuated linear actuator latch mechanism may be configured to cause the door to be in a latched state and to cause the door to be in an unlatched state.

Disclosed are apparatus and corresponding and/or associated methodology generally relating to lawn mower security systems and more particularly to providing the ability to safeguard ride-on style lawn mowers against unauthorized cranking of its engine if the mowers have push/pull mower deck or power-takeoff (PTO) switch technology. Per some embodiments, presently disclosed security components may be secured to a PTO or mower deck switch to prevent the ability to position such switch in a disengaged position. Therefore, existing safety and interlock features of the existing ride-on mower otherwise prevent someone from being able to crank the mower, which helps to guard against unauthorized use and/or theft of the equipment.

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 control unit (40A) includes an operation state determination unit (43) that determines an operating state of a driving source (21) and a communication state determination unit (46) that determines a communication state between an authentication unit (2) and a remote key (4), and the control unit (40A) disables a starting of the driving source (21) by a driving source starting unit (21a) when the control unit (40A) is in an ON state, the operation state determination unit (43) determines that the driving source (21) is in a non-operating state, and the communication state determination unit (46) determines that communication with the remote key (4) is lost.

A vehicular rear slider window assembly includes a movable window panel that is movable along upper and lower rails of a fixed window panel. A first heater grid is disposed at a first fixed panel, a second heater grid is disposed at a second fixed panel, and a third heater grid disposed at the movable window panel. A jumper electrical connector electrically connects between the first and second fixed panels, and a flexible electrical connector electrically connects between the first or second fixed panel and the movable window panel. The first fixed panel has positive and negative terminals configured to electrically connect to at least one electrical connector of a vehicle wire harness when the vehicular rear slider window assembly is installed at a vehicle. When the positive and negative terminals are electrically powered, electrical current may flow in a single direction across the first and second heater grids.