Small-amplitude periodic orbit around sun-earth L1/L2 Controlled by solar radiation pressure

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[1] Tanaka, Keita
[2] Kawaguchi, Jun'ichiro
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Tanaka, Keita (k-tanaka@jh.jp.nec.com) | 1600年 / Japan Society for Aeronautical and Space Sciences卷 / 59期
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The L1 and L2 points of the Sun-Earth system attract much attention for various space uses; such as observation and communication. Deploying the spacecraft just on L1/L2 is; however; not convenient; because L1 always overlaps with the Sun as seen from the Earth and L2 is hidden behind the shadow of the Earth. Adopting a small-amplitude periodic orbit around the L1/L2 points is one option to solve this problem. The orbit can be achieved by low continuous maneuvering. The required magnitude of acceleration is at a level that can be managed by solar radiation pressure. Utilizing solar radiation pressure has the possibility of saving maneuvering to keep the spacecraft near a L1/L2 orbit. Acceleration due to solar radiation pressure depends on the surface area of the spacecraft and thus the spacecraft should be equipped with a large flat surface. A spacecraft equipped with a solar sail is appropriate. This paper presents two station-keeping examples of solar sails in the vicinity of SE L1/L2 using acceleration resulting from solar radiation pressure. The orbit control laws are built into the linear system about the equilibrium; and we confirm that they are applicable in the non-linear system through numerical calculation. © 2016 The Japan Society for Aeronautical and Space Sciences;
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