An exemplary system includes a wireless power transmitter in power communication with a power supply, and a wirelessly-powered electronic device powered by the wireless power transmitter. The wirelessly-powered electronic device includes a wireless power receiver and an electronic device in power communication with the wireless power receiver, and may further include an energy storage device. During operation, the transmitter transmits electromagnetic radiation to the receiver, which in turn converts the electromagnetic radiation to electricity that is utilized by the electronic device. In certain embodiments, the transmitter is provided as an infrared laser.

A device for preventing unwanted opening of a locked enclosure includes a lock bolt moveable between a locked position and an unlocked position. A lever arm is movable between disengaged and engaged positions and moves the lock bolt between the locked and unlocked positions. A rotary element is engageable with the lever arm in the engageable position. The rotation of the rotary element when the rotary element is engaged with the lever arm moves the lock bolt between the locked and unlocked positions. A pin normally blocks the lever arm from moving from the disengaged position to the engageable position. A rotatable output gear moves a rack gear and the pin to unblock the lever arm and thereby allowing the lever arm to engage with the rotary element to allow a user to rotate the rotary element to move the lock bolt between the locked and unlocked positions.

Access control devices are provided that include locking mechanisms, reader devices, and control units powered by solar devices.

An electromechanical locking system includes one or more moveable locking elements and one or more actuators configured to move each of the one or more moveable locking elements between positions. The system includes a receptacle configured to receive a key, a sensor, a processor; and a computer-readable storage medium. The processor causes the sensor to scan the key and detect one or more features of the key, identify a first code that corresponds to the detected features of the key, and apply one or more functions to the first code to yield a second code. The second code includes one or more characters that each character corresponds to one of the plurality of positions. The processor causes the one or more actuators to move the one or more movable locking elements to the positions that correspond to the one or more characters of the second code.

An electronic lock, including: a power storage device; and photovoltaic cells located on a surface of the electronic lock, the photovoltaic cells being electrically coupled to the power storage device in order to provide a charging current to the power storage device.

The present invention relates to a driverless vehicle comprising at least two compartments, two opening elements, at least one retractable compartment partition, and an unlocking device comprising an electronic lock for each opening element, which is able to be locked or unlocked depending on the value of an instruction. The vehicle also comprises a control module comprising a sensor for receiving a digital key and an electronic component for authenticating the digital key and generating an instruction signal. The electronic lock comprises means for detecting closure of the opening elements, and the control module comprises digital key generation means able to generate a unique digital key upon each closure of the opening elements, the electronic component being able to authenticate the received digital key through comparison with the generated unique digital key.

An electromechanical locking system includes one or more moveable locking elements and one or more actuators configured to move each of the one or more moveable locking elements between positions. The system includes a receptacle configured to receive a key, a sensor, a processor; and a computer-readable storage medium. The processor causes the sensor to scan the key and detect one or more features of the key, identify a first code that corresponds to the detected features of the key, and apply one or more functions to the first code to yield a second code. The second code includes one or more characters that each character corresponds to one of the plurality of positions. The processor causes the one or more actuators to move the one or more movable locking elements to the positions that correspond to the one or more characters of the second code.

Systems and methods for pre-stationing and regulating access to emergency medical supplies, by a bystander. The system includes a supply box having medical supplies, a processor, a network interface in communication with the processor, and a keycode receiving device for receiving a keycode associated with the supply box, as well as control software in communication with the network interface of the supply box and at least one database for storing the keycode associated with the supply box. The method includes steps for ultimately enabling the bystander to access the medical supplies for use in response to the emergency.

A door includes a door panel and an electric lock device including a solar energy module, a biometric verification module, a control module and an electric lock. The solar energy module converts solar energy into an electricity output. The biometric verification module receives a biometric input signal relative to a biometric feature, determines whether the biometric feature conforms with a set of pre-established data, and generates a conforming signal if the determination is affirmative. The control module receives the conforming signal to generate a control signal and an unlocking signal. The electric lock receives the control signal and the unlocking signal. The electric lock operates to unlock the door panel.

A system for delivering packages from a warehouse to end destinations, the system comprising a fleet of self-propelled long-range transports and a fleet of containers, each configured to be loaded at the warehouse with packages destined for end destinations. Each long-range transport is configured to be loaded with at least four of the loaded containers and transport the at least four of the loaded containers from the warehouse to one or more intermediate destinations. Upon arrival of one of the loaded long-range transports at one of the one or more intermediate destinations, at least one of the loaded containers is separated from the loaded long-range transport, whereupon the separated container delivers packages to end destinations proximate to the one of the one or more intermediate destinations. After delivery of at least some of the packages loaded thereon at the warehouse, the container is once again loaded on the long-range transport and returned to the warehouse to be loaded with more packages.