A smart lock of a bicycle includes a bicycle locking apparatus and a dock locking apparatus. The bicycle locking apparatus works with a key to lock the bicycle without dock, and the dock locking apparatus works with a dock to lock the bicycle to the dock. The bicycle locking apparatus includes a gear, a locking member, and a driving module. The locking member has a locking tooth portion, the driving module moves the locking member to engage and disengage the locking tooth portion of the locking member with an engaging portion of the key. The dock locking apparatus has a locking latch and a stop member. The driving module moves the locking member to let the stop member against or away from the locking latch to lock or unlock the bicycle to the dock.

The present invention relates to an anti-barricade door handle assembly which comprises an integrated auxiliary door handle for use in an emergency. The auxiliary door handle can be configured between a stowed configuration and an activated configuration. The auxiliary door handle is operable to operate a lock when in the activated configuration and inoperable when in the stowed configuration. The auxiliary door handle can only be configured to the activated configuration by an authorized user. The auxiliary door handle is configured to override a primary door handle which operates the lock in normal, non-emergency use.

A door barricade apparatus includes a body portion having a pushing face, a port, an advancing interface, and a release interface. The apparatus further includes a shaft portion having a shaft and a door bracket. The door bracket has a throat terminating in at least an l-shaped configuration. The door bracket is pivotably coupled to the shaft at a first end and the shaft is disposed within the port.

The control comprises a handle flush mounted in a support and a kinematic chain for driving the handle in movement, comprising at least one rotary element for driving the handle in angular movement and at least one driving member configured to accumulate mechanical energy by mechanical work during a push-in action of the handle and to restitute mechanical energy to the drive kinematic chain after release of the handle. The handle includes a means for stabilizing the kinematic chain configured to limit the angulation of the rotary element of the chain during the push-in of the handle.

The opening control includes a handle pivotally mounted on a support prone to adopt a pushed position, an intermediate rest position and an ejected position as well as electrical and mechanical means for driving in movement the handle and coupled with the handle of the vehicle such that the application of a predefined force on the handle causes the mechanical or electrical activation. It includes a hard point crossing means configured to define a pattern of evolution of a value of a force applied on the handle as a function of a push-in stroke of the handle between its rest position and the pushed position, including a crossing of a hard point separating first and second portions of the stroke.

A deadbolt system securing an access point includes a deadbolt and a deadbolt sensor configured to characterize the performance of the deadbolt. The deadbolt system generates a resistance signature when the deadbolt is moved between a retracted and extended position which is comparable to a threshold or a previously recorded resistance signature. The comparison may determine the presence of one or more performance inhibitors which may be conveyed to an operator through a local or remote indicator.

A closure latch assembly for a motor vehicle closure panel includes a housing; a ratchet pivotably mounted for movement between striker capture and a striker release positions; a release lever, and a pawl assembly. Pawl assembly includes a first and second pawls. First pawl is pivotably mounted to housing for movement about a first pivot axis between ratchet checking and ratchet releasing positions in response to movement of release lever. Second pawl is pivotably mounted to first pawl for movement about a second pivot axis spaced from first pivot axis. Second pawl is engaged with ratchet locking surface while first pawl is in the ratchet checking position to releasably maintain ratchet in the striker capture position. Second pawl is pivotal relative to first pawl about second pivot axis when first pawl pivots toward the ratchet releasing position to allow ratchet to pivot to the striker release position.

A bolt assembly for securing a passive door panel relative to an entryway frame. The bolt assembly comprises an anchoring base fixed relative to the passive door panel. The base has at least one column of spaced apart teeth extending from a side there. The column of spaced apart teeth provides notches between the teeth and adjacent to at least one end of the at least one column. The bolt assembly also has a bolt to slide relative to the base between at least a first position and a second position. The bolt includes a slide having a finger for mating into at least one of the notches in the first position and the second position. The bolt also has a pin attached to the slide for movement therewith. The pin is able to engage the entryway frame when the bolt is in the second position.

The present invention relates to an anti-barricade door handle assembly which comprises an integrated auxiliary door handle for use in an emergency. The auxiliary door handle can be configured between a stowed configuration and an activated configuration. The auxiliary door handle is operable to operate a lock when in the activated configuration and inoperable when in the stowed configuration. The auxiliary door handle can only be configured to the activated configuration by an authorized user. The auxiliary door handle is configured to override a primary door handle which operates the lock in normal, non-emergency use.

Disclosed is a sliding window emergency opening system, comprising: an emergency opening device (2) and a general opening control device (3); wherein a first rotary shaft (202) in the emergency opening device is rotatably mounted on a first base (201); a first pulling cable (206) is wound around the first rotary shaft (202), and one end thereof is connected with a movable sash of the sliding window (1); a first ratchet (203) is fixedly connected with the first rotary shaft (202); a first elastic component is compressed to make a first pawl (204) abut against the first ratchet (203); a second rotary shaft (302) in the general opening control device (3) is rotatably mounted on a second base (301); one end of a general control pulling cable (303) is connected with the second rotary shaft (302), and the other end is connected with the first pawl (204); when the second rotary shaft (302) rotates, the general control pulling cable (303) is wound up to make the first pawl (204) detached from the first ratchet (203); under the action of the gravity of the movable sash in the sliding window, the first pulling cable (206) drives the first rotary shaft (202) to rotate so as to open the movable sash. In practical application, the general opening control device (3) may be provided at a location far from the emergency opening device (2), and the emergency opening device may be remotely controlled to open the movable sash.