Beverage shrinkage monitoring technology is disclosed and is used to reduce beverage shrinkage at bars, clubs, restaurants, and other establishments that dispense beverages. Bottles are topped with wireless (RFID/Bluetooth/WiFi) enabled liquor/wine nozzles that only pour when handled by appropriate staff members who wear RFID wristbands or bracelets. The wireless (RFID/Bluetooth/WiFi) enabled liquor/wine nozzles also report sales to a point of sales (POS) system. Beer taps include proprietary wireless (RFID/Bluetooth/WiFi) enabled beer tap adapters that are mounted to or embedded in the beer taps.

A wearable device receives ticket information for an event and information indicating a quantity of funds allocated from an account, associated with a user of a user device, to the wearable device, and stores the ticket information and the information indicating the quantity of funds. The wearable device utilizes a wireless component to pair the wearable device and the user device, and provides, to the user device and via the wireless component, the ticket information and information indicating access privileges for the event. The wearable device generates a token for a PoS device for a charge incurred at the event during an offline transaction with the PoS device, and provides, via a NFC component, the token to the PoS device. The wearable device provides, to the user device and via the wireless component, information indicating that that the token was provided to the PoS device.

An RFID system in which at least one of the RFID tag antenna and the RFID reader antenna has an impedance matching network associated therewith in order to better match the impedances of the two antennas. This impedance matching places the antennas into an over-coupled regime once they are within a reasonable distance of each other (e.g., 2 to 50 mm). It also increases the Q-factor of the improved antenna, which can greatly increase the range at which the RFID reader can read the RFID tag. This improved RFID system may be used in any of a variety of application, including operating a door lock mechanism.

A fastener with a head element that is coupled to a strip element is disclosed. The strip element is configured to fasten to the head element via an attachment structure of the head element. An identification device is molded into the fastener. The identification device has an identifier integrated circuit (IC) within an IC package and an antenna, having a portion internal to the IC package and a portion extending out of the IC package, coupled to the identifier IC.

A wearable RFID device may include one or more manually activated RFID tags configured to transmit unique RFID signals in response to a manual activation thereof. Such wearable RFID devices may be worn about any aspect of a user's body, such as a hand, a wrist or an arm of the user, who may contact the manually activated RFID tag and transmit an RFID signal that is consistent with a particular action or instruction associated with a task. The action or the instruction may be executed based on the RFID signal, or upon receiving a confluence or sequence of RFID signals. Additionally, a wearable RFID device may be recognized by one or more discrete systems and configured to operate such systems accordingly.

Provided is a power plant operation history device. The power plant operation history device includes: a communication unit configured to detect RFID of a wearable device and communicate with a signal conversion device; and a control unit configured to determine a power plant control authority of a user based on user identification information obtained through the communication unit, transmit an operation permission signal allowing operation of an input device of a power plant control facility control device to the signal conversion device when it is determined that the user's power plant control authority exists, and normally process a user input from the input device through the signal conversion device.

A mobile device includes a body configured to be worn by a user; a lock switchable between an open state and a closed state, where, when the lock is in the closed state, the mobile device is prevented from being removed from the user; and a wireless data system, where the wireless data system and the lock are jointly configured such that, when the lock is open, the wireless data system is at least partially disabled.

A method, computer program product, and computing system for proactive encounter scanning is executed on a computing device and includes obtaining encounter information of a patient encounter. The encounter information is proactively processed to determine if the encounter information is indicative of one or more medical conditions and to generate one or more result set. The one or more result sets are provided to the user.

The wearable RFID device comprises a wearable arrangement, such as a wristband, an RFID buckle containing an RFID circuit and fitting onto the wristband, and a cover or cap for the RFID buckle. The RFID buckle comprises at least one side wall and a bottom wall, a cavity located inside the buckle. The buckle comprises a band retainer slot adjacent to the bottom wall, the band retainer slot receiving a portion of the wristband, the RFID buckle being removably located on the wristband. The RFID circuit is located in the buckle cavity. The removable cover is located on the RFID buckle, the cover closing the cavity. The wearable arrangement bands, buckles and covers are interchangeable with one another.

The present disclosure relates to a wearable radio device for access control. The radio device has an inside portion and an outside portion. The inside portion includes a first transponder and a second transponder. A first barrier is located between the first transponder and the second transponder. A second barrier is located between the first transponder and the second transponder in an outside portion of the wearable device.