DocumentCode
1464054
Title
Accurate modeling of high-Q spiral inductors in thin-film multilayer technology for wireless telecommunication applications
Author
Pieters, Philip ; Vaesen, Kristof ; Brebels, Steven ; Mahmoud, Samir F. ; De Raedt, Walter ; Beyne, Eric ; Mertens, Robert P.
Author_Institution
Dept. of Eng. & Technol. Dev., Zaventem, Belgium
Volume
49
Issue
4
fYear
2001
fDate
4/1/2001 12:00:00 AM
Firstpage
589
Lastpage
599
Abstract
In the current trend toward portable applications, high-Q integrated inductors are gaining a lot of importance. Using thin-film multilayer or multichip-module-deposition technology, high-Q circular inductors for RF and microwave applications may be integrated efficiently. Their quality factors may go up to over 100. In this paper, an accurate analytical model for such multiturn circular spiral inductors embedded in a thin-film multilayer topology is presented. Starting from the geometrical parameters, the model provides an accurate prediction of the inductance value, Q factor and frequency behavior of the inductor. This allows a “first-time-right?” realization of the integrated component and provides opportunities for fast optimization of the inductors. Finally, the presented high-Q inductors have been used in various integrated RF and microwave subsystems for wireless applications, of which a number are discussed at the end of this paper
Keywords
Q-factor; circuit optimisation; inductors; microwave circuits; mobile radio; multichip modules; MCM-D; Q factor; frequency behavior; geometrical parameters; high-Q integrated inductors; high-Q spiral inductors; inductance value; microwave subsystems; multichip-module-deposition technology; thin-film multilayer technology; wireless telecommunication applications; Analytical models; Microwave technology; Nonhomogeneous media; Predictive models; Q factor; Radio frequency; Solid modeling; Spirals; Thin film inductors; Topology;
fLanguage
English
Journal_Title
Microwave Theory and Techniques, IEEE Transactions on
Publisher
ieee
ISSN
0018-9480
Type
jour
DOI
10.1109/22.915431
Filename
915431
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