Article


Cover

№1 2018

Title

Development of the laboratory sample of the hydrodynamic thermoemission converter of power plants of spacecrafts

Authors

A.V. Kolychev, V.A. Kernozhitskiy, L.P. Unakov, A.A. Levihin

Organization

Baltic State Technical University «VOENMEH» named after D. F. Ustinov
Saint Petersburg, Russian Federation

Abstract

Data on the hydrodynamic thermoemission converter developed in D.F. Ustinov Baltic State Technical University «VOENMEH», namely on option of its laboratory sample are provided in the present article. During development laboratory sample of hydrodynamic thermoemission converter was is suggested to create laboratory sample of hydrodynamic thermoemission converter on the basis of reduction of products of combustion of organic fuel. This case creation of the Leningrad Region because of lower labor input of the organization of a flame significantly becomes simpler. Basic elements developed by the Leningrad Region are the cathode – a source of electrons and the anode – the element perceiving the electrons which have left from the cathode, connected through payload. However, in this case there is a problem of change of thermoissue characteristics of a source of electrons – the cathode, both due to processes of «poisoning» (adsorption), and due to possible chemical transformations. However, the conducted preliminary researches have shown that at a certain temperature of a working body reduction of current happens. The laboratory sample is intended for carrying out complex pilot studies of the hydrodynamic thermoemission converter for two types of working bodies - combustion products of organic fuel and inert gases with additives of alkaline metals. The scope of such converters is independent power sources of the Arctic vehicles and spacecrafts with the superlong term of operation.

Keywords

thermionic emission, hydrodynamic thermionic converter, high-speed flows of easy ionized plasma

References

[1] Kolychev A. V., Kernozhitskiy V. A., e.a. (RU) Termoemissionnii elektrogeneriruyuschii kanal [The thermoemission electrogenerating channel]. Patent RU 2538768, 2015, bulletin no. 1. 13 p.

[2] Kolychev A. V., Kernozhitskiy V. A., e.a. (RU) Termoemissionnii elektrogeneriruyuschii kanal [The thermoemission electrogenerating channel]. Patent RU 139811, 2014, bulletin no. 12. 13 p.

[3] Kolychev A.V., Kernozhitskiy V.A. Hydrodynamic thermionic converters power plants of spacecrafts with the superlongterm lifecicle. The Research of the Science City, 2017, vol. 1, no. 3, pp. 126–129. DOI: 10.26732/2225-9449-2017-3-126-129.

[4] Ushakov B. A., Nikitin V. D., Emelyanov I. Ya. Osnovy termoemissionnogo preobrazovaniya energii [Fundamentals of thermionic energy conversion]. Moscow, Atomizdat Publ., 1974. 288 p.

[5] Kvasnikov L. A., Kaybyshev V. Z., Kalandarishvili A. G. Rabochie protsessy v termoemissionnykh preobrazovatelyakh yadernykh energeticheskikh ustanovok [Working processes in thermionic converters of nuclear power plants]. Moscow, MAI Publ., 2001. 240 p.

[6] Termoehmissionnye preobrazovateli i nizkotemperaturnaya plazma [Thermoemission converters and low-temperature plasma]. Pod red. B. YA. Mojzhesa, G. E. Pikusa. Moscow, Nauka Publ., 1973.

[7] Stahanov I. P., Chernovec V. E. Fizika termoehmissionnyh preobrazovatelej [Physics of thermionic converters]. Moscow, Energoatomizdat Publ., 1985.

[8] Fomenko V. S. Emissionnye svojstva materialov [Emissive properties of materials]. Kiev, Nauk. dumka Publ., 1981. 338 p.

[9] Wilson V. C., Podkulski S. P. Characteristics of a thermionic converter with a chloride vapor deposited tungsten emitter (110) and a nickel collector. NASA contractor report CR-1416. WASHINGTON DC.

[10] Kresanov V. S., Malahov N. P., Morozov V. V. Vysokoehffektivnyj ehmitter ehlektronov na osnove geksaborida lantana [Highly efficient electron emitter based on lanthanum hexaboride]. Moscow, Energoatomizdat Publ., 1987. 152 p.



For citing this article

Kolychev A.V., Kernozhitskiy V.A., Unakov L.P., Levihin A.A. Development of the laboratory sample of the hydrodynamic thermoemission converter of power plants of spacecrafts // Spacecrafts & Technologies, 2018, vol. 2, no. 1, pp. 5-9. doi: 10.26732/2618-7957-2018-1-5-9


Creative Commons License
This Article is licensed under a Creative Commons Attribution-NonCommercial 4.0 International License (CC BY-NC 4.0).