Title :
RFID Tag and RF Structures on a Paper Substrate Using Inkjet-Printing Technology
Author :
Yang, Li ; Rida, Amin ; Vyas, Rushi ; Tentzeris, Manos M.
Author_Institution :
Georgia Inst. of Technol., Atlanta
Abstract :
In this paper, inkjet-printed UHF and microwave circuits fabricated on paper substrates are investigated for the first time as an approach that aims for a system-level solution for fast and ultra-low-cost mass production. First, the RF characteristics of the paper substrate are studied by using the microstrip ring resonator in order to characterize the relative permittivity (epsivr) and loss tangent (tan delta) of the substrate at the UHF band for the first time reported. A UHF RFID tag module is then developed with the inkjet-printing technology, proving this approach could function as an enabling technology for much simpler and faster fabrication on/in paper. Simulation and well-agreed measurement results, which show very good agreement, verify a good performance of the tag module. In addition, the possibility of multilayer RF structures on a paper substrate is explored, and a multilayer patch resonator bandpass filter demonstrates the feasibility of ultra-low-cost 3-D paper-on-paper RF/wireless structures.
Keywords :
UHF integrated circuits; band-pass filters; dielectric losses; microstrip resonators; paper; permittivity; radiofrequency identification; substrates; UHF RFID tag; UHF circuits; bandpass filter; inkjet-printing technology; loss tangent; microstrip ring resonator; microwave circuits; multilayer RF structures; multilayer patch resonator; paper substrate; relative permittivity; Mass production; Microstrip resonators; Microwave circuits; Nonhomogeneous media; Optical ring resonators; Paper technology; Permittivity; RFID tags; Radio frequency; UHF circuits; Cavity resonator; RF identification (RFID); UHF; dielectric characterization; inkjet printing; loss tangent; low-cost RF modules; multilayer; paper; printable electronics; relative permittivity; resonator bandpass filter (BPF); ring resonator; wireless local area network (WLAN);
Journal_Title :
Microwave Theory and Techniques, IEEE Transactions on
DOI :
10.1109/TMTT.2007.909886