A vehicle identification means (10) that has an at least partially electrically conductive film (12) and a hologram (36) and/or a reflective film. In addition, at least one data carrier (26), which can be read out in a contactless manner, having an antenna is provided. The hologram (36) is implemented as an antenna for the data carrier (26). A separate antenna is therefore no longer necessary. In addition, multiple antennas can be provided in parallel.

An RFID tag is disclosed that is formed as part of a printed fabric label (PFL). Generally, foil is adhered to a fabric material with a releasable adhesive, the foil is then cut, such as by a laser to define the antenna pattern and a removable portion. The removable portion is then manually stripped away, and a strap is then attached with adhesive to the antenna. A small square of hot melt over-laminate may be placed over the strap and bonded, and then a top layer of fabric is added and secured with an adhesive from a transfer tape.

A transaction card includes a card body that may comprise a card body comprising a ceramic material, the card body including a primary surface and a first mating surface. A card backer comprises a metallic material and includes a secondary surface and a second mating surface. A portion of the first mating surface and a portion of the second mating surface are coupled together.

Disclosed are pre-cure RFID-enabled bead labels based on an RFID inlay construction consisting of an aluminum antenna etched on to a high temperature resistant polyimide film that is connected to an integrated memory circuit positioned on the surface of the polyimide film. This RFID inlay being further inserted into an overall label construction having a plurality of layers that include, for example, a plurality of polyester layers and a plurality of high temperature resistant adhesive layers that bond/adhere layers together, the plurality of layers further protecting and insulating the RFID inlay while the label is bonded to the external bead (or sidewall) of a tire. The compositions/devices disclosed herein can be used for electronic identification when applied on rubber-based articles (e.g., tires) prior to being subjected to stress related to the vulcanization process and normal use of this article during the manufacturing process.

The inventory control system process includes steps for printing a circuit to a sheet stock having at least one ID tag formed therewith such that the circuit is carried by the ID tag, assigning a unique identification code to the circuit associated with the ID tag, removing the ID tag carrying the circuit from the sheet stock, associating the removed ID tag with a product, and entering the product into an inventory control system secured in connection with a user account accessible only by an authorized user associated with the user account, for real-time location tracking of the product thereof by way of the circuit.

A label for being applied, by being wrapped around, to an object to be identified, includes a non-adhesive top side including a printing region for receiving a print on the top side and an adhesive bottom side, by which the label is fastened to the object. The label is in the shape of a strip having a length that is greater than a periphery of the object to be labeled. A transparent wrapping tab is arranged adjacently to the printing region in a longitudinal direction of the label. A length of the wrapping tab is at least equal to the periphery of the object to be labeled. The wrapping tab is wrapped on the printing region and covers the printing region when the label has been applied to the object. An RFID transponder is arranged between the top side and the bottom side in the printing region.

A label for a tube having a diameter D may have a transparent facestock. A printing area is defined on a first surface of the transparent facestock, the printing area configured to receive data thereon, the printing area covering only a portion of the transparent facestock, whereby a shielding portion of the length of the label is transparent. An adhesive layer is on a second surface of the facestock. A wireless communication inlay is adhered to the adhesive layer in a portion of the label corresponding to the printing area. The printing area and the facestock are sized for the shielding portion to overlap at least partially the printing area when the label is wrapped on a tube.

An RFID tag is for arrangement on a bottle for blood-derived products. The bottle includes a main body, the upper end of which includes a neck. The bottle is hermetically sealed by a cap arranged in the upper portion of the neck. The upper portion of the cap includes at least two through-pipes and at least two stiffening ribs that are each connected to the pipes by one of the respective ends thereof. The RFID tag has at least two openings shaped to fit each of the through-pipes, respectively, of the cap such that said RFID tag is positioned on the upper surface of the cap and thus overcomes the obstacle of the through-pipes and the respective stiffening ribs.

An RFID label includes an RFID inlay and has a waveform portion formed on at least a part of a peripheral edge.

A tip cap assembly for coupling with a syringe body includes a luer lock adaptor, a rigid cap coupled to the luer lock adaptor; a rigid tip cap having distal end and proximal ends, the rigid tip cap being disposed at least partially within the rigid cap, a RFID tag positioned over the distal end of the tip cap, and an adhesive layer formed over the RFID tag. Also provided is RFID inlay for use with medical devices including a meshed substrate, and a RFID antenna and integrated circuit assembly adhered to the meshed substrate. A syringe and label assembly is disclosed, including a body having distal and proximal ends, a tip cap assembly having distal end and proximal ends, and a label at least partially surrounding the distal end of the syringe body and the proximal end of the tip cap, the label comprises an integrated RFID tag.