The physical aspects of gas dynamic and thermal physics processes mathematical modelling of descent spacecraft’s

The article discusses the physical aspects and assumptions in the formulation of the gas dynamics and thermal physics models in conditions of “Luna - Resource” spacecraft landing on the Moon surface. It was proposed to divide the problem into two stages: calculation of the gas phase and det...

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Main Authors: Vasenin Igor, Glazunov Anatoliy, Shuvarikov Vladimir, Eremin Ivan, Kagenov Anuar, Kostyushin Kirill
Format: Article
Language:English
Published: VINCA Institute of Nuclear Sciences 2019-01-01
Series:Thermal Science
Subjects:
Online Access:http://www.doiserbia.nb.rs/img/doi/0354-9836/2019/0354-983619513V .pdf
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spelling doaj-512585234d714d198f70879ed6ed94be2021-01-02T13:26:49ZengVINCA Institute of Nuclear SciencesThermal Science0354-98362019-01-0123Suppl. 251351810.2298/TSCI19S2513V0354-983619513VThe physical aspects of gas dynamic and thermal physics processes mathematical modelling of descent spacecraft’sVasenin Igor0Glazunov Anatoliy1Shuvarikov Vladimir2Eremin Ivan3Kagenov Anuar4Kostyushin Kirill5Tomsk State University, Tomsk, RussiaTomsk State University, Tomsk, RussiaTomsk State University, Tomsk, RussiaTomsk State University, Tomsk, RussiaTomsk State University, Tomsk, RussiaTomsk State University, Tomsk, RussiaThe article discusses the physical aspects and assumptions in the formulation of the gas dynamics and thermal physics models in conditions of “Luna - Resource” spacecraft landing on the Moon surface. It was proposed to divide the problem into two stages: calculation of the gas phase and determination of trajectories and heating of particles of lunar dust. The use of the continuum equations and not taking into account the reverse effect of particles on gas was substantiated. The calculation results of parameters impingement exhaust jet of spacecraft propulsion system with Moon surface are given. It was obtained that a reverse external force is added to the streamlined surfaces equal to 196 N, the gas temperature at the bottom of the cargo compartment reaches 2000 K, and the calculated heat flux was 400 kW. The trajectories of the particles of lunar dust was determined and it was found that with a size of 1 μm the distance of their flight range was 3.5 km.http://www.doiserbia.nb.rs/img/doi/0354-9836/2019/0354-983619513V .pdfspacecraftvacuum environmentcontinuous mediumsoft landing enginesmoon surfaceparticles of lunar dust
collection DOAJ
language English
format Article
sources DOAJ
author Vasenin Igor
Glazunov Anatoliy
Shuvarikov Vladimir
Eremin Ivan
Kagenov Anuar
Kostyushin Kirill
spellingShingle Vasenin Igor
Glazunov Anatoliy
Shuvarikov Vladimir
Eremin Ivan
Kagenov Anuar
Kostyushin Kirill
The physical aspects of gas dynamic and thermal physics processes mathematical modelling of descent spacecraft’s
Thermal Science
spacecraft
vacuum environment
continuous medium
soft landing engines
moon surface
particles of lunar dust
author_facet Vasenin Igor
Glazunov Anatoliy
Shuvarikov Vladimir
Eremin Ivan
Kagenov Anuar
Kostyushin Kirill
author_sort Vasenin Igor
title The physical aspects of gas dynamic and thermal physics processes mathematical modelling of descent spacecraft’s
title_short The physical aspects of gas dynamic and thermal physics processes mathematical modelling of descent spacecraft’s
title_full The physical aspects of gas dynamic and thermal physics processes mathematical modelling of descent spacecraft’s
title_fullStr The physical aspects of gas dynamic and thermal physics processes mathematical modelling of descent spacecraft’s
title_full_unstemmed The physical aspects of gas dynamic and thermal physics processes mathematical modelling of descent spacecraft’s
title_sort physical aspects of gas dynamic and thermal physics processes mathematical modelling of descent spacecraft’s
publisher VINCA Institute of Nuclear Sciences
series Thermal Science
issn 0354-9836
publishDate 2019-01-01
description The article discusses the physical aspects and assumptions in the formulation of the gas dynamics and thermal physics models in conditions of “Luna - Resource” spacecraft landing on the Moon surface. It was proposed to divide the problem into two stages: calculation of the gas phase and determination of trajectories and heating of particles of lunar dust. The use of the continuum equations and not taking into account the reverse effect of particles on gas was substantiated. The calculation results of parameters impingement exhaust jet of spacecraft propulsion system with Moon surface are given. It was obtained that a reverse external force is added to the streamlined surfaces equal to 196 N, the gas temperature at the bottom of the cargo compartment reaches 2000 K, and the calculated heat flux was 400 kW. The trajectories of the particles of lunar dust was determined and it was found that with a size of 1 μm the distance of their flight range was 3.5 km.
topic spacecraft
vacuum environment
continuous medium
soft landing engines
moon surface
particles of lunar dust
url http://www.doiserbia.nb.rs/img/doi/0354-9836/2019/0354-983619513V .pdf
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