Abstract: The present invention is directed to an asset tracking system having a central server configured to receive flight information and a baggage identification number for baggage. The system requests that a driving service schedule a first driving trip and sends dropoff locations to the driving service. The system receives confirmation that the baggage was received at the departure airport, that the baggage was loaded onto an airplane, that the airplane arrived at a destination airport, and that the baggage was unloaded from the plane and transported to a baggage claim area at the destination airport. The system requests that the driving service schedule a second driving trip and receives confirmation that the user and the baggage have begun the second driving trip. The system notifies a hotel upon that the user and the baggage have begun the second driving trip and receives hotel room information from the hotel.

Abstract: An asset identification tag having an adhesive region proximate a first end of the tag that has an adhesive disposed on at least a portion of a surface thereof, an extension region proximate a second end of the tag that has a radio-frequency identification (RFID) transponder disposed within the extension region, and an indicator disposed between the extension region and the adhesive region.

Abstract: The present invention is directed to an asset identification tag having an adhesive region proximate a first end of the tag that has an adhesive disposed on at least a portion of a surface thereof, an extension region proximate a second end of the tag that has a radio-frequency identification (RFID) transponder disposed within the extension region, and an indicator disposed between the extension region and the adhesive region.

Abstract: A programmable luggage tag comprising a programmable electronic visual display assembly including a display screen, a radio receiver, a processor operably connecting the display assembly with the radio receiver, the processor configured to permit programming of an image shown on the display screen in response to image commands received through the radio receiver, a unitary housing having first and second opposing major outer sides and first and second opposing minor outer sides arranged substantially perpendicularly to the first and second opposing major outer sides, the housing containing the display assembly, the radio receiver, and the processor, the first major outer side of the housing being substantially transparent, revealing the display screen, the housing configured to receive a cord through a first chamber integrally formed within the housing, and a planar flap fixedly connected with the second major outer side of the housing.

Abstract: Luggage tag has a body with one bistable electronic visual display assembly and one screen, a radio receiver and a processor configured to convert short range command signals detected by the receiver into signals suitable to modify the image on the display screen. A manually operated switch activates the receiver and processor with a battery for a short time period sufficient to receive the command signals and modify the display. The electric components are encapsulated with an RFID transponder assembly in one resiliently flexible, plastic laminate body or the transponder assembly is encapsulated in a planar, plastic laminate flap permanently attached to a separate rigid protective case housing the remaining electric components. The tag is secured to a bag with a flexible connector, under tension, to retain the tag in a fixed position always exposing the sole display screen.

Abstract: Luggage tag has a body with one bistable electronic visual display assembly and one screen, a radio receiver and a processor configured to convert short range command signals detected by the receiver into signals suitable to modify the image on the display screen. A manually operated switch activates the receiver and processor with a battery for a short time period sufficient to receive the command signals and modify the display. The electric components are encapsulated with an RFID transponder assembly in one resiliently flexible, plastic laminate body or the transponder assembly is encapsulated in a planar, plastic laminate flap permanently attached to a separate rigid protective case housing the remaining electric components. The tag is secured to a bag with a flexible connector, under tension, to retain the tag in a fixed position always exposing the sole display screen.

Abstract: A programmable luggage tag has a rigid, flat case containing a bistable visual display assembly, a BLE, NFC or other comparable short range, radio receiver and a processor configured to convert short range radio image control signals detected by the receiver into commands to modify the image on the display. A manual input switch on the case activates circuitry with a battery in the case for a time sufficient to receive the control signals and modify the image. A multilayer plastic, resiliently flexible thin flap is fixed with the case extending away from the case generally in a common plane with the case. The flap includes an encapsulated passive RFID transponder and mounting holes distal to the housing permitting the tag to be resiliently secured to the handle of a piece of luggage.

Abstract: A programmable luggage tag has a rigid, flat case containing a bistable visual display assembly, a BLE, NFC or other comparable short range, radio receiver and a processor configured to convert short range radio image control signals detected by the receiver into commands to modify the image on the display. A manual input switch on the case activates circuitry with a battery in the case for a time sufficient to receive the control signals and modify the image. A multilayer plastic, resiliently flexible thin flap is fixed with the case extending away from the case generally in a common plane with the case. The flap includes an encapsulated passive RFID transponder and mounting holes distal to the housing permitting the tag to be resiliently secured to the handle of a piece of luggage.

Abstract: A standoff RFID element includes a generally planar, hollow, standoff member with a pair of major outer walls connected by a plurality of structural components like ribs and at least a first piece of flexible, planar, non-conductive polymer substrate having one major side bonded with a major side of the standoff member. An RFID inlay is encapsulated between the hollow member and the piece of polymer substrate. The hollow member is formed from a non-conductive, non-porous, polymer material. The flexible substrate is non-conductive and substantially porous.

Abstract: An integral, one-piece, resiliently flexible, planar, reusable, programmable radio frequency identification (RFID) luggage tag has a planar flexible sheet core of microporous polymer material permanently and completely surrounding a first RFID transponder assembly. The first transponder assembly includes a programmable memory portion with space to store information externally programmed into the portion. The tag further includes a programmable bistable visual display and at least a first instruction set in non-volatile memory for loading into programmable memory, near field communication radio data transmitted to the tag.

Abstract: Each personal identification device includes a planar identification element with at least a core of flexible, porous and preferably microvoided polymer sheet material and a planar RFID assembly encoded with a unique electro/magnetic code permanently and integrally joined together with the core. The sheet material is sufficiently porous to collapse around the core so the sheet product remains planar yet flexible. A separate carrier can be provided or devices can be made in batches with scoring define one or more individual RFID devices removable from a remainder of a sheet product.

Abstract: Each personal identification device includes a planar identification element with at least a core of flexible, porous and preferably microvoided polymer sheet material and a planar RFID assembly encoded with a unique electro/magnetic code permanently and integrally joined together with the core. The sheet material is sufficiently porous to collapse around the core so the sheet product remains planar yet flexible. A separate carrier can be provided or devices can be made in batches with scoring define one or more individual RFID devices removable from a remainder of a sheet product.

Abstract: A printed sheet product comprises a thin core having a pair of opposing major planar sides. A plurality of sets of variable data fields are printed on at least a first side of the core. One or more of the variable data fields of each set may be printed on the opposing second side of the core. Each set of printed variable data fields includes at least a first data field printed with a numeric code, the numeric code of each variable data field set being different from that of each other set printed on the first side of the core. Each set of variable data fields further includes a second data field printed with either a name and mailing address uniquely associated with a numeric code or with another representation of the numeric code. Where printed, the name and address of each variable data set differs from that of each other variable data set printed on the first side of the core.

Abstract: A method includes steps of: encapsulating at least a first passive radio frequency identification transponder assembly between two plies of flexible porous planar polymer material intimately bonded together around the assembly, each ply being microvoided substantially uniformly throughout, to form a multilayer planar core; and scoring the multilayer core to define at least a first multilayer, integral, individual planar radio frequency identification element including the first passive radio frequency identification transponder assembly separable from a remainder of the core. The encapsulating step may further include encapsulating a second passive radio frequency identification transponder assembly with the first between the plies.

Abstract: Each printed sheet product includes a core of flexible, microvoided polymer sheet material and a planar RFID assembly encoded with a unique electro/magnetic code permanently and integrally joined together with the core. The microvoided sheet material collapses around the core so the sheet product remains planar. Scoring defines one or more individual identification elements removable from a remainder of the sheet product that include at least a first element with RFID assembly but only part of the core. A separate magnetic strip storing its own unique data magnetically can be provided on the first removable element even at least partially overlying the RFID assembly for independent identification operation.

Abstract: An integral, one-piece, resiliently flexible, planar, reusable, programmable radio frequency identification (RFID) luggage tag has a planar flexible sheet core of microporous polymer material permanently and completely surrounding a first RFID transponder assembly. The first transponder assembly includes a programmable memory portion with space to store information externally programmed into the portion. The tag further includes a programmable bistable visual display and at least a first instruction set in non-volatile memory for loading into programmable memory, near field communication radio data transmitted to the tag.

Abstract: An integral, one-piece, resiliently flexible, planar, reusable, programmable radio frequency identification (RFID) luggage tag has a planar flexible sheet core of at least first and second microporous polymer material strips fixedly and permanently joined together completely surrounding first and second RFID transponder assemblies operating at different frequencies. The tag further includes a programmable electronic flexible sheet display in a visibly accessible position on the tag. The tag is further includes a cell phone number and/or email address of an ultimate designated recipient/user of the tag and instructions to contact the recipient via the number or address. The number and/or address are printed on the tag in a 2D bar code format and/or encoded into a programmable memory portion of at least one of the RFID assemblies to be outputted when polled.