DocumentCode :
14926
Title :
Design and Analysis of Shielded Vertically Stacked Ring Resonator as Complex Permittivity Sensor for Petroleum Oils
Author :
Kulkarni, Savita ; Joshi, Madhuri S.
Author_Institution :
Dept. of Electron. & Telecommun. Eng., Maharashtra Inst. of Technol., Pune, India
Volume :
63
Issue :
8
fYear :
2015
fDate :
Aug. 2015
Firstpage :
2411
Lastpage :
2417
Abstract :
Novel design of a shielded vertically stacked ring resonator (VSRR) is presented in this paper. The use of a shielded VSRR with a layer of the low-loss liquid that fills the partial space between the fed patch and the parasitic patch have been investigated. Dependencies of the resonating frequency and input impedance of the shielded VSRR on structure size and material properties of the test liquid layer are discussed. The method, of finding the complex permittivity (CP), particularly of petroleum liquids, is verified using electromagnetic modeling with full wave simulation software ANSYS HFSS-15 and confirmed experimentally. The proposed new design of the resonator will improve the sensitivity of single ring boxed resonator in terms of the quality factor, and in turn, increase the CP measurement sensitivity.
Keywords :
electric impedance measurement; electric sensing devices; frequency measurement; oils; permittivity measurement; petroleum; resonators; CP measurement sensitivity; VSRR shielding; complex permittivity sensor; electromagnetic modeling; full wave simulation software ANSYS HFSS-15; low-loss liquid layer testing; parasitic patch; petroleum oil; shielded vertically stacked ring resonator; Dielectric loss measurement; Frequency measurement; Liquids; Optical ring resonators; Petroleum; Resonant frequency; Complex permittivity (CP); petroleum liquids; quality factor ($Q$ -factor); vertically stacked ring resonator (VSRR);
fLanguage :
English
Journal_Title :
Microwave Theory and Techniques, IEEE Transactions on
Publisher :
ieee
ISSN :
0018-9480
Type :
jour
DOI :
10.1109/TMTT.2015.2451110
Filename :
7159094
Link To Document :
بازگشت