Aeronautical and Space-Rocket Engineering
Thermal engines, electric propulsion and power plants for flying vehicles
Аuthors
1, 1, 1*, 2**, 31. Design Bureau “Arsenal” named after M.V. Frunze, 1-3, Komsomola str., Saint Petersburg, 195009, Russia
2. Machine-Building plant “Arsenal”, 1-3, Komsomola str., Saint Petersburg, 195009, Russia
3. Baltic State Technical University “VOENMEH ” named after D.F. Ustinov, 1, 1st Krasnoarmeyskaya str., Saint Petersburg, 190005, Russia
*e-mail: kolbasin777ivan@mail.ru
**e-mail: Ustinov@mzarsenal.com
Abstract
The presence of gas-and-dust plasma atmosphere is discovered in every spacecraft, which is confirmed by many domestic and foreign researchers. Due to the medium mixing under the impact of parameters gradients, the radionuclides of plasma atmosphere formed with the intensive impact of gamma and neutron radiation of the reactor would migrate to the outboard space area, surrounding protected part of the spacecraft structure and instrument bay with electronic equipment. These elements would be exposed to radiation due to the induced radiation. In this case, the deterioration of the spacecraft radiation protection against the onboard reactor occurs, which would lead to fluences excess of radiation fluxes on the instrument bay and sensitive structural elements relative to the acceptable levels. Formation of the flows of the eigen external atmosphere (EEA) substance irradiated by the reactor from the operating reactor into the area of the instrument bay and back is stipulated by the presence of parameters gradient of the EEA substance between the specified areas. These parameters are the volume plasma potential and, correspondingly, concentration of charges, pressure and temperature of the gas-and- dust plasma medium. This plasma migration got physical substantiations, published in many scientific works on nuclear physics, performed under I.V. Kurchatov guidance, which attaches authenticity and meaningfulness to the outlined concept, as well as determines the necessity to developing measures for the spacecraft extra radiation protection.
In 1975, an international experiment was conducted in the outer space under the “EPAS” program, during which the artificial Eclipse of the Sun and the solar corona was photographed during the Apollo and Soyuz spaceships joint flight. The spacecraft EEA was repeatedly registered while this experiment. We employed the said photos to analyze the properties of the spacecraft outboard atmosphere. It allowed comprehending the similar processes in the atmosphere of the spacecraft with nuclear reactor.
The physical phenomenon of the “identic luminosity” was recorded by the experimental method in conditions of the space flight under the EPAS program. This phenomenon is a confirmation of the induced radiation phenomenon from the EEA area being under the direct impact of the radiation source due to the various processes of the radiant energy transfer between the particles of the atmospheric environment, varying in weight, shape, chemical content etc., to the shadowed area, protected from direct radiation of the nuclear source, into the atmosphere area. The “identic luminosity” of atmospheric matter can only be explained by the fact that the energy losses while the radiation migration between the described areas are minute. This phenomenon is reliably rendered on all published EEA photos employing high-sensitivity photo film. Such film employing was predetermined by the weak luminosities of the phenomena studied in the experiment such as solar corona and the spacecraft Apollo EEA. They are approximately millions of times smaller weaker than the Sun radiation. Thus, they are being detected only during its full eclipse. This was artificially created in the “Apollo”-“Soyuz” spaceships joint flight (EPAS).
It is necessary to add justification for the necessity for measures to clean the spacecraft outboard space from the EEA caused not by the induced radiation phenomenon only, but also by other non-traditional processes that lead to disturbances in the spacecraft onboard systems functioning.
Keywords:
space experiment, eigen external atmosphere, induced radioactivityReferences
-
Mil’kovskii A.G., Atamasov V.D., Babuk V.A., Danilyuk A.Yu., Nemykin S.A., Romanov A.V., Sokolov Yu.A., Ustinov A.N. Yadernye orbital’nye kompleksy (Nuclear orbital complexes), St. Petersburg, KB “Arsenal” im. M.V. Frunze, 2016, 800 p.
-
Abdurakhimov A.A., Poluyan M.M. Trudy Voenno- kosmicheskoi akademii imeni A.F. Mozhaiskogo, 2007, pp. 26-28.
-
Abdurakhimov A.A., Poluyan M.M. XXV Mezhvedomstvennaya nauchno-tekhnicheskaya konferentsiya kosmodroma “Plesetsk”. Sbornik trudov, 2007, pp. 84-87.
-
Akishin A.I., Novikov L.S. Elektrizatsiya kosmicheskikh apparatov (Electrification of spacecraft), Moscow, Znanie, 1985, 73 p.
-
Askerov F.A., Atamasov V.D., Poletaev B.I. Kosmonavtika XXI veka i yadernye termoemissionnye energeticheskie ustanovki (Cosmonautics of the XXI century and thermoemission power plants), St. Petersburg, Agentstvo “RDK-print”, 2002. Part 2, 384 p.
-
Solnechnoe zatmenie po zakazu. Tekhnika molodezhi, 1978, no. 5, pp. 21-23.
-
“Soyuz”–“Apollon”. URL: https://ru.wikipedia.org/wiki/%D0%A1%D0%BE% D1%8E%D0%B7_%E2%80%94_%D0%90%D0%BF%D0%BE%D0%BB% D0%BB%D0%BE%D0%BD
-
RKK “Energiya” – programma EPAS. URL: https://www.energia.ru/energia/history/astp-project.html
-
Rukopozhatie na orbite. K 35-letiyu mezhdunarodnogo kosmicheskogo poleta po programme EPAS. URL: http://vystavki.rgantd.ru/epas/index.htm
-
Atamasov V.D., Ermolaev V.I., Ezerskii V.V. Kosmicheskii apparat “Yantar’” (“Amber” spacecraft), St. Petersburg, VKA imeni A.F. Mozhaiskogo, 2005, 378 p.
-
Atamasov V.D., Belyaev S.G. Sistemy ispolnitel’nykh organov kosmicheskogo apparata “Yantar’” (Actuator mechanisms systems of the “Amber” spacecraft), St. Petersburg, BGTU “Voenmekh” imeni D.F. Ustinova, 2017, 354 p.
-
Matveev Yu. A., Lamzin V.V. A constraint-based technique to choose design parameters of spacecraft versions meant for earth remote sensing. Aerospace MAI Journal, 2008, vol. 15, no. 1, pp. 44-55.
-
Shustrov T.L. Simulation as a substantiation of the trace contaminants removal system selection. Aerospace MAI Journal, 2019, vol. 26, no. 1, pp. 51-63.
-
Gaponenko O.V., Gavrin D.S., Sviridova E.S. Structure analysis of the strategic plans of the space- rocket industry development by method of space functional and industrial technologies R&D classification. Aerospace MAI Journal, 2019, vol. 26, no. 1, pp. 64-81.
-
Yudintsev V.V. Rotating space debris objects net capture dynamics. Aerospace MAI Journal, 2018, vol. 25, no. 4, pp. 37-48.
-
Donskov A.V., Mishurova N.V., Solov’ev S.V. Automated system for space vehicle status monitoring. Aerospace MAI Journal, 2018, vol. 25, no. 3, pp. 151-160.
-
Razoumny Yu.N., Samusenko O.E., Nguyen N.Q. Optimal options analysis of two-tier satellite systems for near-earth space spherical layer continuous coverage. Aerospace MAI Journal, 2018, vol. 25, no. 3, pp. 171-181.
-
Aslanov V.S., Yudintsev V.V. Docking with space debris employing the unfolding flexible beam-strap. Aerospace MAI Journal, 2018, vol. 25, no. 2, pp. 16-24.
-
Osipov A.M., Kozorez D.A., Sypalo K.I. Solution to the problem of high-speed flying vehicle navigation. Aerospace MAI Journal, 2011, vol. 18, no. 4, pp. 5-19.
-
Malyshev O.V., Vishnyakov A.S., Khmarov I.M., Kondrashov N.G. Definition of spatial positions of flying machines under their two-dimensional dynamic images. Aerospace MAI Journal, 2011, vol. 18, no. 4, pp. 93-101.
-
Baranov V.I., Vasin A.I., Petrosov V.A., Yashnov Yu.M. Patent RU2092983 Cl, 10.10.1997.
-
Walther S. Electrostatic propulsion engine with neutralizing ion source. Patent US6195980B1, 06.03.2001.
-
Gopanchuk V.V., Gorbachev Yu.M., Kozubskii K.N. Patent RU2168793 Cl, 10.06.2001.
-
Gopanchuk V.V., Gorbachev Yu.M. Patent RU2173001 Cl, 27.08.2001.
-
Gopanchuk V.V., Gorbachev Yu.M. Patent RU2173002 C1, 27.08.2001.
-
Atamasov V.D., Dement’ev 1.1., Ustinov A.N. Patent RU2677420 C1, 16.01.2019.
mai.ru — informational site of MAI Copyright © 1994-2024 by MAI |