Demonstration of Sub-THz Traveling-Wave Resonant-Tunneling-Diode Oscillators
Loading...
Date
Authors
Jéhn, Zoltán
Feiginov, Michael
Advisor
Referee
Mark
Journal Title
Journal ISSN
Volume Title
Publisher
IEEE-INST ELECTRICAL ELECTRONICS ENGINEERS INC
ORCID
Altmetrics
Abstract
As a proof of principle, operation of traveling-wave resonant-tunneling-diodes (RTDs) oscillators has been demonstrated experimentally in the frequency range 100-400 GHz. A theoretical model describing a realistic coupled system, consisting of a traveling-wave RTD and a patch antenna, has been developed. The model describes the eigen resonances and the eigen modes, which have a mixed character of both subsystems. The model and the experimental results are in agreement with each other. We also demonstrate that some oscillators were switching between different resonant modes of the system with the change of bias. The phenomenon could be used for an extended frequency control of the RTD oscillators.
As a proof of principle, operation of traveling-wave resonant-tunneling-diodes (RTDs) oscillators has been demonstrated experimentally in the frequency range 100-400 GHz. A theoretical model describing a realistic coupled system, consisting of a traveling-wave RTD and a patch antenna, has been developed. The model describes the eigen resonances and the eigen modes, which have a mixed character of both subsystems. The model and the experimental results are in agreement with each other. We also demonstrate that some oscillators were switching between different resonant modes of the system with the change of bias. The phenomenon could be used for an extended frequency control of the RTD oscillators.
As a proof of principle, operation of traveling-wave resonant-tunneling-diodes (RTDs) oscillators has been demonstrated experimentally in the frequency range 100-400 GHz. A theoretical model describing a realistic coupled system, consisting of a traveling-wave RTD and a patch antenna, has been developed. The model describes the eigen resonances and the eigen modes, which have a mixed character of both subsystems. The model and the experimental results are in agreement with each other. We also demonstrate that some oscillators were switching between different resonant modes of the system with the change of bias. The phenomenon could be used for an extended frequency control of the RTD oscillators.
Description
Keywords
Oscillators , Metals , Coplanar waveguides , Resonant frequency , Semiconductor waveguides , Waveguide components , Impedance , Measurement , modeling , oscillators , resonant-tunneling diodes (RTDs) , resonators , Oscillators , Metals , Coplanar waveguides , Resonant frequency , Semiconductor waveguides , Waveguide components , Impedance , Measurement , modeling , oscillators , resonant-tunneling diodes (RTDs) , resonators
Citation
IEEE TRANSACTIONS ON NANOTECHNOLOGY. 2023, vol. 22, issue 1, p. 91-101.
https://ieeexplore.ieee.org/document/10041720/
https://ieeexplore.ieee.org/document/10041720/
Document type
Peer-reviewed
Document version
Published version
Date of access to the full text
Language of document
en
Study field
Comittee
Date of acceptance
Defence
Result of defence
Collections
Endorsement
Review
Supplemented By
Referenced By
Creative Commons license
Except where otherwised noted, this item's license is described as Creative Commons Attribution 4.0 International

