TELECOMMUNICATIONS AND RADIO ENGINEERING - 2009 Vol. 68,
No 6
 

 

 

 

On Physical Processes in Production of Spatial Charge in a Heating-Free Magnetron with Field Emission Triggering

À.À. Gurko and N.I. Skripkin
Pluton Open Joint-Stock Company,
11, Novo-Syromyatnicheskaya St., Moscow, 105120, Russia

V.D. Yeryomkà
A. Usikov Institute of Radio Physics and Electronics,
National Academy of Sciences of Ukraine
12, Academician Proskura St., Kharkiv 61085, Ukraine

V.D. Naumenko
Institute of Radio Astronomy, National Academy of Sciences of Ukraine
4, Krasnoznamennaya St., Kharkiv 61002, Ukraine

Abstract
Consideration is being given to possible physical processes in generation of a volume charge in the interaction space of the magnetron with a main cold-cathode and secondary-electron emitter triggered with primary electrons emitted by the field electron emitter of an ancillary cathode. A technique is suggested for assessment of the conditions under which a current restriction by the space charge occurs.

References

  1. Êîpylov, Ì.F., Bondarenko, B.V., Ìàkhov, V.I., and Nazarov, V.À., (1994), Patent 2007777, Russian Federation. H01 J 25/50, Ìàgnetron, (in Russian).
  2. Yeryomka, V.D., Dzyuba, V.P., Zakhrabov, N.N., and Ìytnyk, À.P., (2007), Patent 19702. Ukraine. H01 J 25/50, Magnetron, (in Russian).
  3. Okress, E., (ed.) (1961), Crossed Field Microwave Devices. N.Y. and London: Academic Press, pp.268-279.
  4. Bychkov, S.I., (1967), Aspects of theory and practical application of the magnetron-type devices. Sov. Radio, Moscow: 216 p. (in Russian).
  5. Okress, E., (1961), Crossed Field Microwave Devices. N.Y. and London: Academic Press, pp.157-180.
  6. Nosov, À.À., (1981), Òhermal field-electron emission of filamentary crystals at their formation, XVIIIAll-Union Conf. on Emission Electronics, Moscow: 111 p. (in Russian).
  7. Êîstyuk, G.I., (1981), On dynamics of emission processes on pointed cathode, XVIIIAll-Union Conf. on Emission Electronics, Moscow: 117 p. (in Russian).
  8. Pleshivtsev, N.V., (1968), Cathode sputtering. Àtomizdat, Moscow: 285 p. (in Russian).
  9. Pipko, Yu.À., Semyonov, L.À., Margolis, L.Ì., et al., (1994), Patent 2019877. Russian Federation. H01 J 1/32. Ìàgnetronwith heating-free cathode, Bulletin No.17 (in Russian).
  10. Dyubua, D.Ch., Ilyin, V.N., and Kultashev, O.K., (1996), Venal-Alloyed Cathodes for High-Power, IVESC’1996. Conf. Dig. Eindhoven, Netherlands, pp.215-216.
  11. Dmitrieva, V.N., and Yesaulov, N.P., (1971), Investigation of phase composition of palladium- barium and barium-palladium alloys, Noble metals and their application. 28:58.
  12. Dyubua, B.Ch., (2006), Metal-alloy “cold” secondary emission cathode, Radiotekhnika. 3:31-34 (in Russian).
  13. Gnuchev, N.Ì., Êànicheva, I.R., and Êirsanova, Ò.S., (1990), Ion bombardment action upon thermal emission properties of barium-palladium alloy, Electronic equipment. Ser. Microwave electronics. 12:131-133 (in Russian).
  14. Yesaulov, N.P., and Ìarin, V.P., (1991), Interaction of the Pd-Ba alloy with tantalum, wolfram and molybdenum, Electronic equipment. Ser. Ìàterials. 8:18-23 (in Russian).
  15. Êîvalenko, V.F., (1955), Introduction to the SHF electronics. Sov. Radio,
    Moscow: 256 p. (in Russian).
  16. Gritsayenko, S.V., Yeryomka, V.D., Kopot, Ì.À. et al., (2005), Multi-resonator magnetrons with cold secondary emission cathode: achievements, problems, perspectives, Radio Physics and Electronics. 10(special edition):3-37 (in Russian).
  17. Vigdorchyk, I.Ì., and Òimofeyev, V.P., (1974), Investigation of maximal currents in magnetron diode with cold cathode, Journal of Techn. Physics. 44(1):221-223 (in Russian).
  18. Yeryomka, V.D., and Dzyuba, V.P., (2004), Coaxial cold-cathode magnetron, IVEC’2004, Conf. Dig., Monterey, USA, pp.246-247.


pages 507-516

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