Abstract: A RFID tag with reinforced structure is capable of reducing the chance of electrical disconnection between the silicon chip and the antenna, extending the life of the RFID tag, and improving the accuracy of reading the RFID tag. The RFID tag is provided with a base, a silicon chip, an antenna and at least one reinforced portion. The base includes a first outer surface and an opposite second outer surface. The chip is disposed in the base and provided with a plurality of chip-electric-connection portions. The antenna is disposed in the base and provided with a plurality of antenna-electric-connection portions to be electrically connected to the chip-electric-connection portions. The reinforced portion protrudes from the first or second outer surface of the base.

Abstract: A RFID tag with reinforced structure is capable of reducing the chance of electrical disconnection between the silicon chip and the antenna, extending the life of the RFID tag, and improving the accuracy of reading the RFID tag. The RFID tag is provided with a base, a silicon chip, an antenna and at least one reinforced portion. The base includes a first outer surface and an opposite second outer surface. The chip is disposed in the base and provided with a plurality of chip-electric-connection portions. The antenna is disposed in the base and provided with a plurality of antenna-electric-connection portions to be electrically connected to the chip-electric-connection portions. The reinforced portion protrudes from the first or second outer surface of the base.

Abstract: A RFID tag with a semi-enclosed coupler, wherein the coupler of the antenna layer is designed to be a semi-enclosed linear structure, and the open end of the coupler is connected to the antenna portion. One end of the antenna portion is inserted into the range of the coupler and the other end of which extends to the open end of the coupler. The length of the antenna portion can be an integer times of ¼?, achieving the effect of signal stabilization and optimization.

Abstract: An RFID-enabled hologram laser tag is disclosed, which is primarily comprised of: a hologram substrate; and a radio frequency identification (RFID) module, including an RFID chip; wherein the RFID module is configured into the hologram substrate so as to use a conducting layer of the substrate as an antenna of the RFID module. In a preferred embodiment, the RFID chip can be modularized with another conductive substrate so as to form an interface module, with which the coupling of the hologram substrate with the RFID chip is facilitated. Operationally, as the RFID-enabled hologram laser tag is attached to an object, the position and other relating information of the object can be identified and acquired through the RF signals of the RFID chip so that the RDIF-enabled hologram laser tag, not only is decorative, but also can use the RFID technology to automatically tracking and identification the object attached thereby.