A locking device having a guard lock for safety doors includes a mechanical actuator which can be fastened on a movable door part and a housing which interacts with the actuator and can be fastened to a door counterpart. The housing includes a receptor to which the actuator can be inserted, and the housing comprises a locking element which is displaceable between an unlocked position, in which the actuator can be released, and a locked position, in which the actuator can be fixed relative to the receptor. The actuator comprises an engagement tongue having an engagement recess for mechanical operative engagement with a head end of a locking element in form of an engagement plunger, the engagement plunger being guided in the housing so as to be longitudinally displaceable in a spring-biased manner in the in a plunger longitudinal direction relative to an inner fixed bearing.

A trap for large animals. The system utilizes multi-containment areas for improved efficiency in herd animal trapping. The outer containment zone of the system is designed in such a way to promote animals further into the inner containment zone. The improved efficiency lowers overall cost of trap operation in terms of time, consumable bait replenishment and number of attempts on target animal groups. The system allows for independent and remote actuation of containment zone gates. Data is transmitted to a remote user and remote actuation of attracting or deterring audio can be done during trapping process. The architecture of the trap dissuades animals capable of jumping from doing so over the containment walls.

An electronic lock includes a latch member and a clutch mechanism mounted on the outside of the lock cylinder and including a clutch unit, a driving unit and a control module. The clutch unit includes a rotatable seat having a first engaging portion, an accessible knob, and a clutch seat having a second engaging portion. The clutch seat is movable relative to the rotatable seat between an unlock position and a lock position, where the second engaging portion engages and disengages the first engaging portion, respectively.

Disclosed is a lever-type door lock driving assembly which can be installed inside a mounting hole to enable miniaturization of the device, ensure general versatility, and prevent a fragile area from being generated inside the door. The present invention relates to a driving assembly for a lever-type door lock arranged in an installation hole to drive a latch operating body, wherein the mounting assembly comprise a mounting module having a truncated disc shape and having at least one driving plate therein; and a motor unit mounted on the truncated area of the mounting module and having a disk shape in a state of being coupled to the mounting module.

A removable lock core for use with a lock device having a locked state and an unlocked state is disclosed. The removeable lock core may include a cam member tailpiece which is moveable between a first position relative to a lock core body which corresponds to the lock device being in the locked state and a second position relative to a lock core body which permits removal of the removeable lock core from the lock device which corresponds to the lock device being in the unlocked state. The removeable lock core may include an electro-mechanical drive assembly which in a disengaged state is decoupled from the cam member tailpiece and in an engaged state is coupled to the cam member tailpiece. A cam lock having a locked state and an unlocked state for use with a catch is disclosed.

The present application relates to a door lock and a control circuit thereof. The door lock includes a switch means, a switch driving means capable of opening the switch means, and a driving slider. The driving slider is capable of driving the switch driving means. The driving slider is capable of being driven by a door hook. The switch driving means (that is, a swing lever) and a lock pin are capable of jointly controlling opening of the switch means. The switch driving means (that is, the swing lever) is driven by a mechanical structure (that is, the driving slider), and the lock pin can be driven by an electronic signal and a circuit structure (for example, a second current loop), thereby improving the sensitivity and reliability in disconnecting the power supply under abnormal working conditions.

A dual-contact electro-permanent magnet (EPM) assembly of an information handling system may comprise a plurality of high-coercivity magnets situated on opposite ends of a low-coercivity magnet, a first EPM magnetic contact disposed between a first of the plurality of high-coercivity magnets and the low-coercivity magnet, and a second EPM magnetic contact disposed between a second of the plurality of high-coercivity magnets and the low-coercivity magnet. The low-coercivity magnet polarity may correlate to a direction of current pulse applied to an electrically conductive wire coiled around the low-coercivity magnet, and dependent upon the low-coercivity magnet polarity, the first EPM magnetic contact is capable of operating in an attractive magnetic state to attract a ferromagnetic contact of a peripheral device while the second EPM magnetic contact is magnetically neutral with respect to the ferromagnetic contact.

A panel-mounted latch module includes a cable extending from a housing of the latch module to deliver either power or signals either to or from the latch module. A rotatable member is rotatably connected to the housing. A pawl is mounted to the rotatable member and is moveable between a locked position to prevent access to the secured area and an unlocked position to permit access to the secured area. A sleeve is fixed to the housing and at least partially surrounds the rotatable member, such that the rotatable member rotates with respect to the sleeve. A fastener is configured to be mounted to the sleeve for attaching the latch module to the panel. A washer is positioned between the fastener and the panel. The washer has a channel through which the cable passes so as to either limit or prevent the fastener from compressing the cable.

A door latch for a domestic electrical appliance is provided, which door latch has an electromotively driven locking element for locking the closed door.

The present application discloses a door lock, which may be implemented on a door panel of an electrical device such as a washing machine. The lock includes a housing that can be installed into the panel without hardware such as a mounting screw, eliminating a need to position a screw in the panel for mounting the lock. The lock housing may include a lock head that can move into or out of a groove formed as a recess into a clamping edge of the housing. Ramped surfaces and contact faces of the housing are provided that allow rotation of the housing during its installation into the panel, which force the lock head into the groove during the housing insertion into the panel and allow the lock head to restore by moving out of the groove when the housing is in an installed position, locking the housing in place.