卫星轨道因大气阻力而衰减

G. Vukovich, Y. Kim
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引用次数: 1

摘要

在没有干扰的情况下,地球轨道卫星将沿着开普勒轨道运行,这是一个以地球为焦点的规则椭圆。然而,在现实中,还有许多额外的因素,如重力场不规则性、地球磁场与卫星磁残和感应磁场的相互作用、太阳辐射压力、其他天体的引力影响以及大气阻力等,会干扰卫星轨道,使其偏离固定在惯性空间中的经典开普勒椭圆。一般来说,这些轨道扰动在短期内相对较小。然而,对于低地球轨道卫星来说,大气阻力是主要因素,导致卫星逐渐失去高度(轨道衰减),最终进入地球大气层致密的低层,在那里被烧毁。即使在相当高的海拔,这种衰减也会相当快。这种效果也可用于有计划地销毁失效卫星,以免增加空间碎片问题。本研究开发了用于卫星大气阻力轨道衰减预测的简单模型和模拟器。该模拟器可用于卫星轨道衰减评估及其影响研究。
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Satellite orbit decay due to atmospheric drag
In the absence of disturbances, an Earth orbiting satellite will follow a Keplerian orbit, which is a regular ellipse with Earth at a focus. However, in reality, there are many additional factors such as gravity field irregularities, Earth magnetic field interactions with satellite magnetic residual and induced magnetic field, solar radiation pressure, the gravitational influence of other celestial bodies and atmospheric drag, which disturb satellite orbits and deflect them from the classic Kepler ellipse fixed in inertial space. Generally, these orbital disturbances are relatively minor over the short-term of a few orbits. However, for low Earth orbiting satellites, atmospheric drag is the dominant factor, causing a satellite to gradually lose altitude (orbital decay) and eventually enterer the dense lower layers of the Earth's atmosphere, where is burned up. Even for fairly high altitudes, this decay can be fairly rapid. This effect can also be used for planned destruction of defunct satellites so as not to add to the space debris problem. This study develops simple models and simulators for satellite atmospheric drag orbital decay prediction. The simulator can be used for satellite orbital decay assessment and studying its effects.
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