DocumentCode :
756727
Title :
Artificial-line-division distributed ICs with 0.1-μm-gate-length GaAs MESFET and three-dimensional transmission lines
Author :
Kimura, Shunji ; Imai, Yuhki ; Yamaguchi, Satoshi ; Onodera, Kiyomitsu ; Kikuchi, Hiroyuki
Author_Institution :
NTT Photonics Labs., Nippon Telegraph & Telephone Corp., Kanagawa, Japan
Volume :
50
Issue :
6
fYear :
2002
fDate :
6/1/2002 12:00:00 AM
Firstpage :
1603
Lastpage :
1608
Abstract :
0.1-μm-gate-length GaAs MESFET distributed baseband integrated circuits (ICs) that utilize an artificial-line-division technique and three-dimensional transmission lines are described. The technique reduces return loss of the distributed circuits at high frequencies, and four-layer transmission-line structure reduces parasitic impedance caused by the IC pattern shape and is suitable for the flip-chip bonding module format. A gate-line-division distributed baseband amplifier IC achieved input return loss of less than -13 dB and gain of 11.7 dB in the 0-56 GHz band. A source-line-division distributed level-shift IC achieved output return loss of less than -9.6 dB at high frequencies and insertion loss of 2.7 dB in the 0-79 GHz band. Both results better the performance of all reported GaAs MESFET distributed ICs
Keywords :
III-V semiconductors; MESFET integrated circuits; cascade networks; distributed amplifiers; distributed parameter networks; field effect MIMIC; flip-chip devices; gallium arsenide; high-frequency transmission lines; integrated circuit design; transmission line theory; -9.6 dB; 0 to 56 GHz; 0 to 79 GHz; 0.1 micron; 2.7 dB; 3D transmission lines; GaAs; GaAs MESFET; IC pattern shape; artificial-line-division distributed ICs; distributed baseband ICs; distributed baseband amplifier IC; flip-chip bonding module format; four-layer transmission-line structure; gate-line-division; insertion loss; parasitic impedance reduction; return loss reduction; source-line-division distributed level-shift IC; three-dimensional transmission lines; Baseband; Bonding; Distributed parameter circuits; Frequency; Gallium arsenide; Impedance; MESFET integrated circuits; Propagation losses; Shape; Transmission lines;
fLanguage :
English
Journal_Title :
Microwave Theory and Techniques, IEEE Transactions on
Publisher :
ieee
ISSN :
0018-9480
Type :
jour
DOI :
10.1109/TMTT.2002.1006422
Filename :
1006422
Link To Document :
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