All-Electric Aircraft Localization Performance Study via Space Solar Power Satellite Constellation

S. Goh, S. Zekavat
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引用次数: 1

Abstract

The all-electric aircraft (AEA) is a fully battery powered aircraft that has a low engine noise and carbon dioxide mission level. However, the AEA requires space solar power satellite (SSPS) enabled mid-air recharging technology to allow high payload capacity and long flight duration. In addition, the rectenna size of AEA requires the SSPS to accurately beam the microwave energy to the rectenna. Therefore, high performance AEA localization and tracking (LAT) by SSPS is essential. This paper studies the AEA localization performance via SSPS constellation. We assume the AEA broadcasts its position information via the automatic dependent surveillance-broadcast (ADS-B) channel. In addition, each SSPS located within the field-of-view measures the time-of-arrival (TOA) of the ADS-B signal for fusion purpose. Furthermore, the signal traveling time delay effect and SSPS position error are considered. A Montel Carlo simulation has been conducted to study the AEA localization performance with respect to SSPS altitude and measurement error magnitude. The results show that the SSPS altitude and positioning errors have higher impact on AEA localization accuracy. Also, the results show that the AEA localization via SSPS constellation can meet the target accuracy.
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基于空间太阳能卫星星座的全电动飞机国产化性能研究
全电动飞机(AEA)是一种完全由电池驱动的飞机,具有低发动机噪音和低二氧化碳任务水平。然而,AEA需要空间太阳能卫星(SSPS)启用空中充电技术,以允许高有效载荷能力和长飞行时间。此外,AEA的整流天线尺寸要求SSPS精确地将微波能量发射到整流天线。因此,SSPS的高性能AEA定位和跟踪(LAT)是必不可少的。本文研究了基于SSPS星座的AEA定位性能。我们假设AEA通过自动相关监视广播(ADS-B)频道广播其位置信息。此外,位于视场内的每个SSPS测量ADS-B信号的到达时间(TOA),用于融合目的。此外,还考虑了信号的延时效应和SSPS的位置误差。通过蒙特卡罗仿真研究了AEA定位性能与SSPS高度和测量误差量级的关系。结果表明,SSPS的高度和定位误差对AEA定位精度的影响较大。结果表明,利用SSPS星座进行AEA定位可以满足目标精度。
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