A biometric safe cabinet assembly for accessing the firearm safe from a bedside includes a cabinet. The cabinet is a nightstand and is positioned adjacent to a bedside. A scanner is attached to a side of the cabinet. The scanner is a biometric fingerprint reader that is in electric communication with a microprocessor. The microprocessor determines if the fingerprint reading matches the accepted fingerprint data. The microprocessor is in electric communication with a lock which is an electromagnet. The lock receives electric current from a power supply to produce a magnetic field that attracts the magnet of a door. The door is for a safe for a weapon is to be stored within. The magnetic field will diminish when the electric current is closed off by the microprocessor if the correct fingerprint is used. The safe can be accessed by the user without leaving the bedside.

A banknote handling system includes an unlocking system. The unlocking system includes a camera, a first mechanical arm to which one or a plurality of keys are affixed, and a controller that determines a position of a keyhole based on an image from the camera, and controls the first arm to insert one of the one or the plurality of keys into the keyhole and turn the inserted key for unlocking. In many examples, the unlocking system is configured to unlock a banknote cashbox.

A safe box specially designed for shipping, through a regular courier, high value or collectible items with a wide range of sensors, including GPS, a light sensor, temperature sensor, microphone, camera, motion sensor, speaker, hygrometer, monitored locking system, network module, battery module, and anti-theft mechanisms to detect and prevent theft or unauthorized access. The battery module provides power to the network module and the sensors. The sensors providing location information and data to the network module, the network module transmits a shipping status message to an external device.

An electronic lockbox includes a latching apparatus that uses a rotary actuator with multiple positions to achieve multiple locking states. Multiple positions of the actuator are detected, using optical sensors. The locking mechanism includes an outer sleeve and an inner cylindrical barrel that are coupled with torsion springs. The lockbox has a shackle and a key bin that include latch pins which are retained by the inner barrel when in the locked state, and the barrel can be rotated to either release the shackle or to release the key bin that typically holds a building's key. During insertion of a latch pin into the rotatable barrel, a first interior protrusion is sufficiently wide such that after the first latch pin has been inserted into the barrel and has become latched, the first latch pin does not unlatch itself as the second latch pin is inserted and rotates the rotatable barrel during the second latch pin insertion.

The present disclosure relates an electronic locking system. In certain embodiments, the electronic locking system includes a passive electronic lock, active electronic key and passive electronic key. The passive electronic key stores a passive digital key, and the active electronic key stores an active digital key. Each of passive and active electronic keys includes a communication channel and an electronic key power supply port. The active electronic key includes electrical power source providing electrical power supply to active electronic key, passive electronic lock and passive electronic key through passive electronic lock to operate passive electronic lock. When both active and passive electronic keys are inserted into respective electronic keyholes of passive electronic lock, both active and passive digital keys are transmitted to passive electronic lock, passive electronic lock can be locked and unlocked only when both active and passive digital keys received match prestored active and passive digital keys respectively.

An electronic lockbox uses a rotary actuator with multiple positions to achieve multiple locking states. Multiple positions of the actuator are detected, using optical sensors. The locking mechanism includes an outer sleeve and an inner cylindrical barrel that are coupled with torsion springs. The lockbox has a shackle and a key bin that are retained by the inner barrel when in the locked state, and the barrel can be rotated to either release the shackle or to release the key bin that typically holds a building's key.

An electronic lockbox uses a rotary actuator with multiple positions to achieve multiple locking states. Multiple positions of the actuator are detected, using optical sensors. The locking mechanism includes an outer sleeve and an inner cylindrical barrel that are coupled with torsion springs. The lockbox has a shackle and a key bin that are retained by the inner barrel when in the locked state, and the barrel can be rotated to either release the shackle or to release the key bin that typically holds a building's key.

Method and its enabling device for remote wireless micro-latching for security purposes, comprising at least one user or controller, one mobile communication device, and one secured device, whereas said user is enabled to open or close a micro-latch in said a secured device, for instant a safe box or a medical cabinet, allowing access to secured content, including money, ID card, checks, as well as medicine. Also disclosed is a multiplicity of said devices and their preprogrammed remote control by computer or mobile app. The micro-latching can be amplified to macro-latching, for instance by a micro-solenoid switching a high power electrical switch bank or relay, which in turn initiates industrial processes.

A dresser integrated safe apparatus for preventing dressers from tipping and providing safekeeping includes a dresser frame and a plurality of tracks coupled to the dresser frame and positioned on a frame left side and a frame right side within a frame inside adjacent a plurality of drawer apertures. A plurality of drawers each has a pair of drawer rails to slidingly engage the tracks. A safe body has a pair of safe rails to slidingly engage the tracks adjacent a lowest drawer aperture of the plurality of drawer apertures. A safe door is hingingly coupled to the safe body. The safe door covers and alternatively exposes a safe cavity of the safe body. A safe control is coupled within the safe door. The safe control includes a door lock to secure and alternatively release the safe door.

An electronic lockbox including a key bin having an embedded insert. The insert is embedded during a die cast process. The insert enhances the attack resistance of the lockbox from hammering, chiseling, and drilling attacks. The insert includes “3D features” that help with the casting process and attack resistance, including at least one through-hole, at least one slot, and at least one ridge. A housing portion is constructed over multiple drawing stages to increase its hardness and strength, thereby increasing resistance to prying attacks.