ISSN 0869-6632 (Print)
ISSN 2542-1905 (Online)


For citation:

Muchkaev V. Y., Onishchenko A. P., Tsarev V. A. Generation of double-frequency radiation in monotron with three-gap cavity. Izvestiya VUZ. Applied Nonlinear Dynamics, 2021, vol. 29, iss. 6, pp. 915-926. DOI: 10.18500/0869-6632-2021-29-6-915-926

This is an open access article distributed under the terms of Creative Commons Attribution 4.0 International License (CC-BY 4.0).
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Russian
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Article
UDC: 
537.862

Generation of double-frequency radiation in monotron with three-gap cavity

Autors: 
Muchkaev Vadim Yurievich, Yuri Gagarin State Technical University of Saratov
Onishchenko Anton Pavlovich, Yuri Gagarin State Technical University of Saratov
Tsarev Vladislav Alekseevich, Yuri Gagarin State Technical University of Saratov
Abstract: 

Purpose of this work is to study modes and conditions that make it possible to excite the highest type of microwave oscillations, the frequency of which is a multiple of the frequency of the main type, in a monotron with a three-band resonator. Method of the investigation is a numerical 3D modeling, used to calculate the dimensions and electrodynamic parameters of the resonator (characteristic impedance, coupling coefficient, relative electronic conductivity); operation modes of the monotron are considered, which are characterized by excitation of oscillations in the highest type oscillations. Result. In the resonator under consideration, it is possible to achieve a multiple (equal to three) ratio between the frequency of the 25th highest type of oscillations and the frequency of the π/2-type. It was shown that in such resonator simultaneous excitation of electromagnetic field on those frequencies can be made. The maximum of an output power achieved at 100.22 GHz is 15.4 W with an accelerating voltage of 7825 V and an electronic beam microperveance 0.36 µA/V3/2 . The maximal efficiency on a third harmonic is 0.83% while the total efficiency (generating electromagnetic waves of the first and the third harmonics) is up to 17%. Conclusion. It was set that the described method of generation of terahertz range radiation is promising for further investigation, as it solves problem that orthodox microwave devices meet in the millimeter wavelength range, such as small linear dimensions of the components and critical current density of the electronic beam.

Acknowledgments: 
This work was supported by Russian Foundation for Basic Research, grant No. 19-07-00611
Reference: 
  1. Bratman VL, Litvak AG, Suvorov EV. Mastering the terahertz domain: sources and applications. Physics-Uspekhi. 2011;54(8):837–844. DOI: 10.3367/UFNe.0181.201108f.0867.
  2. Grigoriev AD. Terahertz electronics. In: 2018 International Conference on Actual Problems of Electron Devices Engineering (APEDE). 27-28 Sept. 2018, Saratov, Russia. New York: IEEE; 2018. P. 5–10. DOI: 10.1109/APEDE.2018.8542172.
  3. Federici J, Moeller L. Review of terahertz and subterahertz wireless communications. J. Appl. Phys. 2010;107(11):111101. DOI: 10.1063/1.3386413.
  4. Tonouchi M. Cutting-edge terahertz technology. Nature Photon. 2007;1(2):97–105. DOI: 10.1038/nphoton.2007.3.
  5. Isaev VM, Kabanov IN, Komarov VV, Meschanov VP. Modern radio-electronic systems of terahertz frequency range. Proceedings of TUSUR University. 2014;(4(34)):5–21 (in Russian).
  6. Grigoriev AD. Problems in the development of sources of powerful coherent terahertz radiation. In: Abstracts of the IV All-Russian Scientific and Technical Conference «Electronics and Microelectronics Microwave». Vol. 1. Saint Petersburg: Saint Petersburg Electrotechnical University «LETI»; 2015. P. 139–143 (in Russian).
  7. Vishnevskyi V, Frolov S, Shakhnovitch I. Radio relay millimeter wave communication systems: New velocity horizons. Electronics: Science, Technology, Business. 2011;(1):90–97 (in Russian).
  8. Taylor ZD, Singh RS, Bennett DB, Tewari P, Kealey CP, Bajwa N, Culjat MO, Stojadinovic A, Lee H, Hubschman JP, Brown ER, Grundfest WS. THz medical imaging: in vivo hydration sensing. IEEE Trans. Terahertz Sci. Technol. 2011;1(1):201–219. DOI: 10.1109/TTHZ.2011.2159551.
  9. Pawar AY, Sonawane DD, Erande KB, Derle DV. Terahertz technology and its applications. Drug Invention Today. 2013;5(2):157–163. DOI: 10.1016/j.dit.2013.03.009.
  10. Bronwell AB, Beam RE. Theory and Application of Microwaves. New York: McGraw-Hill; 1947. 486 p. 
  11. Birdsall CK, Bridges WB. Electron Dynamics of Diode Regions. New York: Academic Press; 1966. 270 p.
  12. Barroso JJ, Kostov KG. A 5.7-GHz, 100-kW microwave source based on the monotron concept. IEEE Trans. Plasma Sci. 1999;27(2):580–586. DOI: 10.1109/27.772289.
  13. Tsarev VA, Muchkaev VY, Shalaev PD. Studying a multibeam microwave drift-tube K-band oscillator with an electrodynamic system of two slot-coupled resonators. Tech. Phys. Lett. 2014; 40(4):288–292. DOI: 10.1134/S1063785014040117.
  14. Muchkaev VY, Fedyaev VK, Tsarev VA. Numerical investigation of the electrodynamic properties of a K-band multibeam monotron with a three-gap cavity. J. Commun. Technol. Electron. 2016;61(9):1034–1038. DOI: 10.1134/S1064226916090084.
  15. Booske JH, Dobbs RJ, Joye CD, Kory CL, Neil GR, Park GS, Park J, Temkin RJ. Vacuum electronic high power terahertz sources. IEEE Trans. Terahertz Sci. Technol. 2011;1(1):54–75. DOI: 10.1109/TTHZ.2011.2151610.
  16. Muchkaev VY, Senchurov VA, Kurkin S, Badarin A. Electron flow modulation in doublegap cavity with a multiple ratio of the two modes frequencies. IEEE Trans. Electron Devices. 2021;68(2):835–840. DOI: 10.1109/TED.2020.3046994.
  17. Sullivan DM. Electromagnetic Simulation Using the FDTD Method. New York: IEEE Press; 2000. 165 p.
  18. Berenger JP. A perfectly matched layer for the absorption of electromagnetic waves. J. Comput. Phys. 1994;114(2):185–200. DOI: 10.1006/jcph.1994.1159.
  19. Kunz KS, Luebbers RJ. The Finite Difference Time Domain Method for Electromagnetics. New York: CRC Press; 1993. 464 p.
  20. Grigoriev AD, Yankevich VB. Resonators and Resonator Microwave Deceleration Systems. Numerical Methods of Calculation and Design. Moscow: Radio and Communication; 1984. 248 p. (in Russian).
  21. Caryotakis G. High Power Klystrons: Theory and Practice at the Stanford Linear Accelerator Center. No. SLAC-PUB 10620. Menlo Park, CA, USA: Stanford Linear Accelerator Center; 2005. 138 p.
  22. Carliner MM. Electrodynamics of Microwave: The Course of Lectures. Novosibirsk: Novosibirsk State University; 2006. 258 p. (in Russian).
  23. Roshal AS. Modeling of Charged Beams. Moscow: Atomizdat; 1979. 224 p. (in Russian).
  24. Birdsall CK, Langdon AB. Plasma Physics via Computer Simulation. Boca Raton: CRC Press; 1991. 504 p. DOI: 10.1201/9781315275048.
Received: 
23.05.2021
Accepted: 
05.07.2021
Published: 
30.11.2021