Main methods of trajectory synthesis for scenarios of space missions with gravity assist maneuvers in the system of Jupiter and with landing on one of its satellites

The development of a methodology for designing trajectories of spacecraft intended for the contact and remote studies of Jupiter and its natural satellites is considered. This methodology should take into account a number of specific features. Firstly, in order to maintain the propellant consumption...

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Veröffentlicht in:Solar system research 2016-12, Vol.50 (7), p.597-603
Hauptverfasser: Golubev, Yu. F., Tuchin, A. G., Grushevskii, A. V., Koryanov, V. V., Tuchin, D. A., Morskoy, I. M., Simonov, A. V., Dobrovolskii, V. S.
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container_end_page 603
container_issue 7
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container_title Solar system research
container_volume 50
creator Golubev, Yu. F.
Tuchin, A. G.
Grushevskii, A. V.
Koryanov, V. V.
Tuchin, D. A.
Morskoy, I. M.
Simonov, A. V.
Dobrovolskii, V. S.
description The development of a methodology for designing trajectories of spacecraft intended for the contact and remote studies of Jupiter and its natural satellites is considered. This methodology should take into account a number of specific features. Firstly, in order to maintain the propellant consumption at an acceptable level, the flight profile, ensuring the injection of the spacecraft into orbit around the Jovian moon, should include a large number of gravity assist maneuvers both in the interplanetary phase of the Earth-to-Jupiter flight and during the flight in the system of the giant planet. Secondly, the presence of Jupiter’s powerful radiation belts also imposes fairly strict limitations on the trajectory parameters.
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subjects Acceptability
Astronomy
Astrophysics and Astroparticles
Astrophysics and Cosmology
Gravitation
Gravity
Jupiter
Jupiter (planet)
Jupiter satellites
Maneuvers
Methodology
Observations and Techniques
Physics
Physics and Astronomy
Planetology
Satellites
Space exploration
Spacecraft
Trajectories
title Main methods of trajectory synthesis for scenarios of space missions with gravity assist maneuvers in the system of Jupiter and with landing on one of its satellites
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