空间碎片撞击等离子体对卫星电源束持续放电的影响研究

Yuki Mando, Koji Tanaka, T. Hirai, S. Kawakita, M. Higashide, H. Kurosaki, S. Hasegawa, K. Nitta
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摘要

空间碎片在近地轨道上的速度为7-8公里/秒,在地球静止轨道上的速度为3公里/秒。空间碎片与航天器的碰撞将造成巨大的破坏。特别是直径小于1mm的颗粒会造成永久性持续放电(PSD)的风险。PSD可能影响卫星的电力系统。由于太阳能电池阵列的面积很大,对其影响的研究已经很充分,但对卫星线束束(称为电源线束)的影响尚未得到澄清,尽管电源线束通常在没有保护的情况下暴露在空间环境中。我们使用两级轻型气枪进行了超高速撞击实验,研究了小于1mm颗粒超高速撞击导致PSD的风险。此外,我们比较了两种电路配置:一种更现实的电路配置有内阻和一种没有内阻的电路配置,以研究内阻是否影响PSD的发生。直径为0.3至1毫米的不锈钢和氧化铝弹丸的炮速可达7.16公里/秒。在低轨道或同步轨道典型卫星的模拟功率条件下,目标需要三层功率线束。结果,28次射击中有11次导致PSD。使用更现实的电路配置,我们无法确认有关PSD的任何结果。因此,我们发现PSD不太可能发生在一个更现实的电路配置。
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Investigation on Sustained Discharge of Satellite’s Power Harness Due to Plasma from Space Debris Impact
Space debris travels at a velocity of 7-8 km/s in low Earth orbit (LEO) and at 3 km/s in geostationary Earth orbit (GEO). An impact between space debris and spacecraft will result in tremendous damage. In particular, particles less than 1mm in diameter pose a risk of causing permanent sustained discharge (PSD). PSD may affect a satellite’s power system. The effect on solar arrays has been well-studied given their large area, but the effect on the bundle of a satellite’s wire harness (called the power harness) has yet to be clarified, even though the power harness is usually exposed to the space environment without protection. We conducted hypervelocity impact experiments using a two-stage light gas gun, and investigated the risk resulting in PSD from hypervelocity impacts of particles less than 1mm in size. In addition, we compared two kinds of circuit configurations: a more realistic circuit configuration with internal resistance and a circuit configuration without it, so as to investigate whether internal resistance affects the occurrence of PSD. Stainless steel and aluminum oxide projectiles measuring from 0.3 to 1 mm in diameter were gun-accelerated up to 7.16 km/s. Targets entailed a three-layered power harness under a simulated power condition of typical satellites operating in LEO or GEO. As a result, 11 of 28 shots resulted in PSD. With the more realistic circuit configuration we could not confirm any results regarding PSD. We thus found that PSD is less likely to occur in a more realistic circuit configuration.
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