Numerical Analysis of Relative Orbit Control Strategy for CANYVAL-X Mission

This paper suggests a relative orbit control strategy for the CubeSat Astronomy by NASA and Yonsei using Virtual Telescope Alignment eXperiment (CANYVAL-X) mission whose main goal is to demonstrate an essential technique, which is an arrangement among two satellites and a specific celestial object,...

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Main Authors: Lee, Youngro, Park, Sang-Young, Park, Jae-Pil, Song, Youngbum
Format: Article
Language:English
Published: The Korean Space Science Society 2019-12-01
Series:Journal of Astronomy and Space Sciences
Subjects:
Online Access:https://doi.org/10.5140/JASS.2019.36.4.235
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author Lee, Youngro
Park, Sang-Young
Park, Jae-Pil
Song, Youngbum
author_facet Lee, Youngro
Park, Sang-Young
Park, Jae-Pil
Song, Youngbum
author_sort Lee, Youngro
collection DOAJ
description This paper suggests a relative orbit control strategy for the CubeSat Astronomy by NASA and Yonsei using Virtual Telescope Alignment eXperiment (CANYVAL-X) mission whose main goal is to demonstrate an essential technique, which is an arrangement among two satellites and a specific celestial object, referred to as inertial alignment, for a next-generation virtual space telescope. The inertial alignment system is a relative orbit control system and has requirements for the relative state. Through the proposed orbit control strategy, consisting of separation, proximity keeping, and reconfiguration, the requirements will be satisfied. The separation direction of the two CubeSats with respect to the orbital plane is decided to provide advantageous initial condition to the orbit controller. Proximity keeping is accomplished by differential atmospheric drag control (DADC), which generates acceleration by changing the spacecraft’s effective cross section via attitude control rather than consuming propellant. Reconfiguration is performed to meet the requirements after proximity keeping. Numerical simulations show that the requirements can be satisfied by the relative orbit control strategy. Furthermore, through numerical simulations, it is demonstrated that the inertial alignment can be achieved. A beacon signal had been received for several months after the launch; however, we have lost the signal at present.
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spelling doaj.art-fefa84b7c918415ebe9dc81a9fe1431a2024-02-03T00:18:19ZengThe Korean Space Science SocietyJournal of Astronomy and Space Sciences2093-55872093-14092019-12-0136423524810.5140/JASS.2019.36.4.235Numerical Analysis of Relative Orbit Control Strategy for CANYVAL-X MissionLee, Youngro0Park, Sang-Young 1Park, Jae-Pil2Song, Youngbum3Department of Astronomy, Yonsei University, Seoul 03722, KoreaDepartment of Astronomy, Yonsei University, Seoul 03722, KoreaDepartment of Astronomy, Yonsei University, Seoul 03722, KoreaDepartment of Astronomy, Yonsei University, Seoul 03722, KoreaThis paper suggests a relative orbit control strategy for the CubeSat Astronomy by NASA and Yonsei using Virtual Telescope Alignment eXperiment (CANYVAL-X) mission whose main goal is to demonstrate an essential technique, which is an arrangement among two satellites and a specific celestial object, referred to as inertial alignment, for a next-generation virtual space telescope. The inertial alignment system is a relative orbit control system and has requirements for the relative state. Through the proposed orbit control strategy, consisting of separation, proximity keeping, and reconfiguration, the requirements will be satisfied. The separation direction of the two CubeSats with respect to the orbital plane is decided to provide advantageous initial condition to the orbit controller. Proximity keeping is accomplished by differential atmospheric drag control (DADC), which generates acceleration by changing the spacecraft’s effective cross section via attitude control rather than consuming propellant. Reconfiguration is performed to meet the requirements after proximity keeping. Numerical simulations show that the requirements can be satisfied by the relative orbit control strategy. Furthermore, through numerical simulations, it is demonstrated that the inertial alignment can be achieved. A beacon signal had been received for several months after the launch; however, we have lost the signal at present.https://doi.org/10.5140/JASS.2019.36.4.235canyval-xinertial alignmentinertial alignment systemrelative orbit controlproximity keepingreconfiguration
spellingShingle Lee, Youngro
Park, Sang-Young
Park, Jae-Pil
Song, Youngbum
Numerical Analysis of Relative Orbit Control Strategy for CANYVAL-X Mission
Journal of Astronomy and Space Sciences
canyval-x
inertial alignment
inertial alignment system
relative orbit control
proximity keeping
reconfiguration
title Numerical Analysis of Relative Orbit Control Strategy for CANYVAL-X Mission
title_full Numerical Analysis of Relative Orbit Control Strategy for CANYVAL-X Mission
title_fullStr Numerical Analysis of Relative Orbit Control Strategy for CANYVAL-X Mission
title_full_unstemmed Numerical Analysis of Relative Orbit Control Strategy for CANYVAL-X Mission
title_short Numerical Analysis of Relative Orbit Control Strategy for CANYVAL-X Mission
title_sort numerical analysis of relative orbit control strategy for canyval x mission
topic canyval-x
inertial alignment
inertial alignment system
relative orbit control
proximity keeping
reconfiguration
url https://doi.org/10.5140/JASS.2019.36.4.235
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AT parksangyoung numericalanalysisofrelativeorbitcontrolstrategyforcanyvalxmission
AT parkjaepil numericalanalysisofrelativeorbitcontrolstrategyforcanyvalxmission
AT songyoungbum numericalanalysisofrelativeorbitcontrolstrategyforcanyvalxmission