Orbit Transfers to Lower Altitude Orbits Using Aerobraking
A strategy to obtain a temporary low altitude orbit (150 ~ 200 km at periapse) from a nominal higher altitude circular orbit using aerobraking is developed. The mission objective is to minimize propellant consumption subject to an upper bound on transfer time. The results are somewhat intuitive and...
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Published in | The Journal of the astronautical sciences Vol. 51; no. 3; pp. 307 - 317 |
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Main Authors | , |
Format | Journal Article |
Language | English |
Published |
New York
Springer Nature B.V
01.07.2003
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Subjects | |
Online Access | Get full text |
ISSN | 0021-9142 2195-0571 |
DOI | 10.1007/BF03546300 |
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Abstract | A strategy to obtain a temporary low altitude orbit (150 ~ 200 km at periapse) from a nominal higher altitude circular orbit using aerobraking is developed. The mission objective is to minimize propellant consumption subject to an upper bound on transfer time. The results are somewhat intuitive and show that the total delta-V is minimized when the orbital velocity of the satellite at the periapse on the transfer orbit is identical to the periapse velocity of the lower altitude mission orbit. Additionally, the general relation between transfer angle and the velocity at periapse on the transfer orbit is formed from numerical simulations. The developed strategy is employed for test cases of a low Earth orbit remote sensing satellite and a Mars mission. In each case, a linear relation of the transfer angle and the velocity at periapse on the transfer orbit is generated. A staircase-pattern relation between the transfer angle that minimizes total delta-V and the desired apoapse altitude of lower altitude mission orbit is generated for both Earth and Mars test cases. |
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AbstractList | A strategy to obtain a temporary low altitude orbit (150 ~ 200 km at periapse) from a nominal higher altitude circular orbit using aerobraking is developed. The mission objective is to minimize propellant consumption subject to an upper bound on transfer time. The results are somewhat intuitive and show that the total delta-V is minimized when the orbital velocity of the satellite at the periapse on the transfer orbit is identical to the periapse velocity of the lower altitude mission orbit. Additionally, the general relation between transfer angle and the velocity at periapse on the transfer orbit is formed from numerical simulations. The developed strategy is employed for test cases of a low Earth orbit remote sensing satellite and a Mars mission. In each case, a linear relation of the transfer angle and the velocity at periapse on the transfer orbit is generated. A staircase-pattern relation between the transfer angle that minimizes total delta-V and the desired apoapse altitude of lower altitude mission orbit is generated for both Earth and Mars test cases. |
Author | Woo, Byoungsam Coverstone, Victoria L. |
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Cites_doi | 10.1007/978-94-011-2692-2 10.2514/2.4773 10.2514/2.3538 10.1007/BF01227493 10.1007/978-94-009-9907-7 |
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Copyright | American Astronautical Society 2003. |
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References | R S Smith (BF03546300_CR6) 1999; 37 J R Wertz (BF03546300_CR4) 1978 W J Larson (BF03546300_CR10) 1992 J E Prussing (BF03546300_CR1) 1993 K D Mease (BF03546300_CR2) 1988; 1 H Baumann (BF03546300_CR3) 2001; 24 F S Johnson (BF03546300_CR5) 1965 S W McCuskey (BF03546300_CR7) 1963 J T Betts (BF03546300_CR8) 1994; 42 M J H Walker (BF03546300_CR9) 1985; 36 |
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Snippet | A strategy to obtain a temporary low altitude orbit (150 ~ 200 km at periapse) from a nominal higher altitude circular orbit using aerobraking is developed.... |
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SubjectTerms | Aerobraking Altitude Circular orbits Computer simulation Low altitude Low earth orbits Mars missions Orbital velocity Propellant consumption Remote sensing Rocket launches Transfer orbits Upper bounds Velocity |
Title | Orbit Transfers to Lower Altitude Orbits Using Aerobraking |
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