DocumentCode
757715
Title
Simulation of 100-300 GHz solid-state harmonic sources
Author
Zybura, Michael F. ; Jones, Jessica R. ; Jones, S.H. ; Tait, Gregory B.
Author_Institution
Dept. of Electr. Eng., Virginia Univ., Charlottesville, VA, USA
Volume
43
Issue
4
fYear
1995
fDate
4/1/1995 12:00:00 AM
Firstpage
955
Lastpage
961
Abstract
Accurate and efficient simulations of the large-signal time-dependent characteristics of second-harmonic transferred electron oscillators (TEO´s) and heterostructure barrier varactor (HBV) frequency triplers have been obtained. This is accomplished by using a novel and efficient harmonic-balance circuit analysis technique which facilitates the integration of physics-based hydrodynamic device simulators. The integrated hydrodynamic device/harmonic-balance circuit simulators allow TEO and HBV circuits to be co-designed from both a device and a circuit point of view. Comparisons have been made with published experimental data for both TEO´s and HBV´s. For TEO´s, excellent correlation has been obtained at 140 GHz and 188 GHz in second-harmonic operation. Excellent correlation has also been obtained for HBV frequency triplers operating near 200 GHz. For HBV´s, both a lumped quasi-static equivalent circuit model and the hydrodynamic device simulator have been linked to the harmonic-balance circuit simulator. This comparison illustrates the importance of representing active devices with physics-based numerical device models rather than analytical device models
Keywords
Gunn oscillators; circuit analysis computing; digital simulation; equivalent circuits; frequency multipliers; harmonic oscillators (circuits); millimetre wave frequency convertors; millimetre wave oscillators; varactors; 100 to 300 GHz; frequency triplers; harmonic-balance circuit analysis technique; heterostructure barrier varactor; hydrodynamic device simulator; integrated hydrodynamic device/harmonic-balance circuit simulators; large-signal time-dependent characteristics; lumped quasi-static equivalent circuit model; physics-based numerical device models; second-harmonic transferred electron oscillators; solid-state harmonic sources; Analytical models; Circuit analysis; Circuit simulation; Electrons; Frequency; Hydrodynamics; Oscillators; Solid modeling; Solid state circuits; Varactors;
fLanguage
English
Journal_Title
Microwave Theory and Techniques, IEEE Transactions on
Publisher
ieee
ISSN
0018-9480
Type
jour
DOI
10.1109/22.375260
Filename
375260
Link To Document