Disclosed are a control method for an electronic lock and an electronic lock based on the control method. The electronic lock has a simple structure, and jointly control a snap hole on the handle with a telescopic body of the electromagnet located on the lock body base and a push rod controlled by the unlock mechanism. The telescopic body of the electromagnet has the characteristics of self-holding function when power off through the first permanent magnet, which not only the hidden danger of illegal unlocking through mechanical structure is solved, but also the power consumption of electronic lock in preventing illegal lock opening can be greatly reduced. The market's technical requirements for electronic locks can be met, and high promotion value can be obtained.

A door assembly system including a door assembly frame and a plurality of doors, each door being movably coupled to the door assembly frame. The system further includes an electrically activatable component coupled to the door assembly frame and operatively coupled to at least one door to selectively lock or unlock the at least one door. The door assembly frame is configured to be removably attached to a storage device frame having a plurality of compartments such that each door covers one of the compartments. The electrically activatable component is configured to be operatively connected to a controller coupled to the storage device frame.

The present disclosure includes a handle assembly system for use with lift and slide doors. The handle assembly can include a handle housing that can serve as a support frame for housing and securing the handle flush within a front face of the door. The handle can be pivoted out of the handle housing and extended to increase length, wherein rotating the handle allows a user to actuate the door panels in order to open and close the sliding door system. The telescoping handle can allow a user to grip the handle and provide a lever-type function to reduce the force required by the user to actuate the panel, such as to lift the panel onto or off the track.

A multidirectional handle (10) is described, comprising a grip (11) assembled on a hollow handle body (46); a lever (12) associated with the grip (11) and with a lever support (14) contained in the handle body (46) and rotating together with grip (11) and lever support (14) and oscillating on the lever support (14); a first and a second cam elements (16, 18) associated with the lever (12); a revolving element (35) associated with the second cam element (18); and a connecting bar (45) connected to the revolving element (35) and adapted to connect the handle (10) to a lock.

Magnetic safety gate latch assembly including a first subassembly and a second subassembly. The first subassembly includes: a vertically-oriented pool latch tube; a lift mechanism coupled to the top end of the pool latch tube; a shaft vertically oriented within the pool latch tube, coupled to the lift mechanism, and having a lower end including a helical thread; a magnet and magnet housing, the magnet housing coupled to the helical threading of the shaft; and a bottom cover coupled to the lower end of the pool latch tube and enclosing the magnet housing, the bottom cover including an aperture on a vertical side facing a latch pin housing, the aperture positioned to expose the magnet. The second subassembly includes the latch pin housing; a ferromagnetic latch pin; and a magnetic latch pin guide coupled to the latch pin housing and slidably enclosing at least a portion of the latch pin.

Assembly (10) for an electronic locking system (84), the assembly (10) comprising an actuating element (12) rotatably arrangable with respect to a base member (16) for rotation about a first axis (18) and rotatably arranged about a second axis (24) substantially perpendicular to the first axis (18), an electric generator (74) comprising a rotor (76), and a transmission arrangement (82) configured to transmit a rotational actuation of the actuating element (12) about the second axis (24) into a rotation of the rotor (76) of the electric generator (74) to generate electric energy.

A handle arrangement for a vehicle comprising: a handle moveable between a slowed position and a deployed position; a drive mechanism for controlling the handle position; a sensor for detecting a force applied to the handle when in the deployed position, which force is directed so as to urge the handle into the stowed position; wherein upon detecting the force the handle arrangement is arranged to move the handle from the deployed position to the stowed position.

A lock including: a retractable knob; and a knob release mechanism for retaining the retractable knob in a retracted position, the knob release mechanism retains the retractable knob in the retracted position until a motor of the knob release mechanism is actuated by an input provided to a keypad located on a surface of the lock.

A fastener operating structure includes a holding base and a fastening-connecting unit. The holding base is disposed at a first object. The fastening-connecting unit is movably disposed at the holding base. The fastening-connecting unit is fastened to a second object. Consequently, the holding base is disposed at the first object, and the fastening-connecting unit is coupled to or removed from the second object, so as to couple together and separate the first and second objects repeatedly and quickly.

A swivel lock assembly with electronic and manual actuating means to unlock a handle thereby permitting access to the interior of the cabinet wherein the manual actuator can override the electronic actuator and vice versa. When in a locked position, the handle rests within lock housing such that the handle engages a blocker mounted within the housing. To unlock the handle, the blocker is manipulated by electronic or manual actuation such that the handle is no longer constrained and can be swung away from the housing about a handle pivot.