The disclosure is an intelligent electronic lock. The intelligent electronic lock includes: an electronic lock shell, a wireless communication module, an instruction input device, the instruction input device is arranged on the electronic lock shell for instruction input, a processor, the processor is connected to the wireless communication module and the instruction input device is connected to receive and send signals, and the electronic rope.

An assembly of load containers can facilitate the transportation, storage and handling of miscellaneous goods. The containers have movement means, can be stacked on top of one the other, and the assembly of containers is specially adapted to fit in a 20-ft or 40-ft shipping container. Such containers have locking means with remote tracking and can be transported inside dry-box maritime containers, or directly on or inside any transport means.

An exit device according to one embodiment includes a plurality of sensors and an electronic dogging mechanism. The exit device is configured to locally analyze sensor data to determine the security state of the exit device, report data to a management system via a wireless communication channel established between the exit device and the management system, and receive and process instructions to perform an electronic dogging operation.

A container door electronic seal system for sensing abnormal opening/closing of a container door comprising a retainer, on which a locking rod installed outside the container door is seated, and a handle hatch, which binds or unbinds a handle seated on the retainer, according to the present disclosure, comprises: an electronic seal, which binds the retainer and the handle hatch, and which wirelessly transmits the abnormal opening/closing information of the container door to the outside; a first connector electrically extending from the electronic seal; a second connector, which is installed on the container door, and which is electrically connected to the first connector; and a first sensing unit electrically connected to the second connector to sense whether the handle hatch is opened/closed. According to the present disclosure, a sensing unit, which senses abnormal opening/closing of the container door, is installed on the container door and is recycled, thereby making it possible to implement an electronic seal system that can sense abnormal opening/closing of the container door with little costs.

A container door electronic seal system for sensing abnormal opening/closing of a container door comprising a retainer, on which a locking rod installed outside the container door is seated, and a handle hatch, which binds or unbinds a handle seated on the retainer, according to the present disclosure, comprises: an electronic seal, which binds the retainer and the handle hatch, and which wirelessly transmits the abnormal opening/closing information of the container door to the outside; a first connector electrically extending from the electronic seal; a second connector, which is installed on the container door, and which is electrically connected to the first connector; and a first sensing unit electrically connected to the second connector to sense whether the handle hatch is opened/closed. According to the present disclosure, a sensing unit, which senses abnormal opening/closing of the container door, is installed on the container door and is recycled, thereby making it possible to implement an electronic seal system that can sense abnormal opening/closing of the container door with little costs.

An electronic lockset mounted on a door, the electronic lock including a lock to prevent the door from opening when in a locked state, a handle to open the door when the lock is in an unlocked state, a sensor to sense whether a non-electronic key has attempted to open the lock, and a printed circuit board to store information sensed by the sensor.

An electronic lockset mounted on a door, the electronic lock including a lock to prevent the door from opening when in a locked state, a handle to open the door when the lock is in an unlocked state, a sensor to sense whether a non-electronic key has attempted to open the lock, and a printed circuit board to store information sensed by the sensor.

A motor for an electronic lock. The motor drives the electronic lock between a locked position and an unlocked position. A printed circuit board is mounted onto the motor. The printed circuit board includes a motor battery that is mounted onto the printed circuit board. A lock memory device is also mounted onto the printed circuit board and keeping a record of the usage of the electronic lock. In a preferred embodiment, the motor battery is remotely mounted and is connected to the printed circuit board via a wire connection.

In a method of monitoring lockout procedures, a first lockout device is secured with a first component in a lockout condition to block operation of the first component, and a corresponding first data signal is received, with the first data signal including at least a first identification code corresponding to the first lockout device. A second lockout device is secured with a second component in a lockout condition to block operation of the second component, and a corresponding second data signal is received, with the second data signal including at least a second identification code corresponding to the second lockout device. The first and second data signals are monitored to determine an order in which the first and second lockout devices have been locked out, which is compared with a predefined lockout procedure. An alert is provided if the order is inconsistent with the predefined lockout procedure.

In a method of monitoring lockout procedures, a first lockout device is secured with a first component in a lockout condition to block operation of the first component, and a corresponding first data signal is received, with the first data signal including at least a first identification code corresponding to the first lockout device. A second lockout device is secured with a second component in a lockout condition to block operation of the second component, and a corresponding second data signal is received, with the second data signal including at least a second identification code corresponding to the second lockout device. The first and second data signals are monitored to determine an order in which the first and second lockout devices have been locked out, which is compared with a predefined lockout procedure. An alert is provided if the order is inconsistent with the predefined lockout procedure.