A long-distance radio frequency anti-metal identification tag is provided. When a bottom surface of an insulating spacer plate is attached to the surface of a metal object and an electronic tag reading device is used to read a radio frequency identification chip on a second antenna. A resonant cavity is formed between a slot of a first antenna and the surface of the metal object through the isolation of the insulating spacer plate, such that the second antenna located at the position of the resonant cavity resonates with an electromagnetic wave signal reflected on the surface of the metal object by the first antenna. The electromagnetic wave signal is transmitted to the radio frequency identification chip, or the feedback signal of the radio frequency identification chip is transmitted out. The overall UHF electronic tag is resistant to a metal interference and has the performance of long-distance reading.

A long-distance radio frequency electronic identification tire structure is provided. When the production of the tire is completed and an electronic tag reading device is used for identification, an RFID chip of an ultra high frequency electronic tag of a main tire body receives and sends an electromagnetic wave signal generated by a far-field copper film antenna and the electronic tag reading device. The frequency band and the bandwidth of the electromagnetic wave signal are adjusted by a frequency band/bandwidth adjustment portion, and first and second field effect adjustment grooves of first and second field effect adjustment portions are configured to adjust the field effect when a tire bead bundle and a steel belt layer reflect the electromagnetic wave signal, so that the electronic tag reading device can read the identification code of the ultra high frequency electronic tag at a wide angle and a long distance.

The present invention relates to a cover for medical injection device, said medical injection device having a hub portion defined at its distal end. The said cover includes: an outer casing formed of a first material, said outer casing having an inner wall having a circumference, an inner casing formed of a second material different from the said first material and defining a cavity capable of receiving in a sealing way at least part of the hub portion, said inner casing having an outer wall having a circumference, and being at least partly inserted within the outer casing and at least partially in contact with the inner wall of the outer casing, a Radio Frequency Identification RFID tag located between the outer casing and the inner casing, said RFID tag comprising a RFID chip connected to at least one RFID antenna, wherein the RFID tag has a width extending between 40% and 100%, 100% being excluded, of the circumference of the outer wall of the inner casing or the whole circumference of the inner wall of the outer casing and wherein the RFID tag has a length extending over at least 50% of a length of the cover. The invention also relates to a medical injection device including the said cover and a method for manufacturing said cover.

The present invention relates to cover for a medical injection device, said medical injection device having a hub portion defined at its distal end. The said cover includes an outer casing formed of a first material, said outer casing having a distal end and a proximal end,—an inner casing formed of a second material different from the said first material and defining a cavity capable of receiving in a sealing way, at least part of the hub portion, said inner casing having a distal end and a proximal end, and being at least partly inserted within the outer casing and at least partially in contact with the outer casing and—at least one substantially ring-shaped Radio Frequency Identification RFID tag embedded within the cover, said ring-shaped RFID tag including a RFID chip connected to at least one ring-shaped RFID antenna. The present invention also relates to a medical injection device and a method for manufacturing a cover.

A system for sensing a physical property of a fluid flowing inside a composite hose includes a radio frequency identification (RFID) reader arranged to transmit radio frequency signals. An RFID tag receives the radio frequency signals and exchanges the received radio frequency to electrical energy powering the RFID tag. An included sensor electrically connected to the RFID tag receives the electrical energy from the RFID tag and powers the sensor to obtain measurement data of at least one physical property of the fluid and transmit the measurement data to the RFID tag. The RFID tag transmits the measurement data to the RFID reader using the radio frequency.

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.

An ultrahigh frequency RFID tag antenna with multi-infeed includes an antenna assembly, a baseboard, and a ground plane. The baseboard is located above the ground plane. The antenna assembly is electrically connected to the ground plane. The antenna assembly includes a radiated element, a number of microstrip lines, and a number of tag chips. Each of the tag chips is connected between each two microstrip lines, thereby a microstrip feed loop is formed by each of the tag chips and the each two microstrip lines.

A tool having a detectable wireless marker or tag is provided. The tool has a working portion with a projection or tang by which the working portion of the tool is held, a wireless tag located on, but insulated from the tang, and a handle disposed over and encompassing the projection or tang and the wireless tag. In an exemplary embodiment, the wireless tag is insulated from the tang using a housing assembly made up of an inner holder, an outer holder, and the detectable wireless tag positioned between the inner and outer holders. The invention allows for the use of fragile markers or tags, which are protected by the housing assembly from temperatures and pressures used during, for example, tool handle manufacturing processes. Also provided is a method for providing a tool with a detectable wireless tag, and a method for tracking and tracing tools used within a packaging facility.

A radio-frequency identification tag that includes a ground plane made of an electrically conductive material, and an actuator made of a transducer material adapted to convert a variation of a physical quantity into a mechanical displacement of the ground plane between first and second positions when the physical quantity crosses a predetermined threshold in order to indicate this event to the reader. The transducer material is a thermal shape-memory material or a magnetostrictive material or a magnetic shape-memory material. The transducer material is also an electrically conductive material. The ground plane and the actuator are both formed by a single strip made of the transducer material and a mobile portion of which moves relative to an antenna between the first and second positions when the physical variable crosses the predetermined threshold.

An RFID tag 300 with a boost antenna includes a boost antenna 100 and an RFID tag 200, wherein the boost antenna 100 includes: a radiation unit 10 which is conductive; a ground unit 30 which faces the radiation unit 10 and is conductive; and a short circuit unit 20 which connects one end of the radiation unit 10 and one end of the ground unit 30, and electrically connecting the radiation unit 10 and the ground unit 30 with each other, and wherein the RFID tag 200 is arranged at a position close to the short circuit unit 20 on the ground unit 30, wherein each of the boost antenna 100 and the RFID tag 200 has resonance characteristics.