ARAIM with More than two Constellations

Y. Zhai, X. Zhan, Jin Chang, B. Pervan
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引用次数: 9

Abstract

Future Advanced Receiver Autonomous Integrity Monitoring (ARAIM) is expected to bring significant global navigation performance improvement to civil aviation. Currently, the ARAIM research activities are led by a joint working group of the United States (U.S.) and the European Union (E.U.), which focuses on dual-constellation scenario using the Global Positioning System (GPS) and Galileo. However, even though the BeiDou System (BDS) and GLONASS had achieved remarkable developments in recent years, there had been no comprehensive exploration on their potential benefits to ARAIM. In response, this paper investigates the achievable ARAIM service capability and robustness using more than two full Global Navigation Satellite Systems (GNSS) constellations. Moreover, the key issues with the current baseline ARAIM user algorithm under the new operational scenarios are identified. It is shown that due to the exponentially increased number of monitored satellite subsets, the computational load can be significantly increased when additional constellations are employed. To mitigate this impact, an efficient Fault Detection and Exclusion (FDE) algorithm is rigorously developed by grouping multiple fault hypotheses. To accommodate the non-equal performance levels among the constellations, a series of sensitivity analyses are carried out using variable Integrity Support Message (ISM) values, and the results are presented in terms of availability.
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有两个以上星座的ARAIM
未来先进接收机自主完整性监测(ARAIM)有望为民用航空带来显著的全球导航性能改善。目前,ARAIM的研究活动由美国和欧盟的联合工作组领导,重点研究使用全球定位系统(GPS)和伽利略的双星座方案。然而,尽管近年来北斗系统和格洛纳斯系统取得了显著的发展,但对其对ARAIM的潜在好处尚未进行全面的探索。为此,本文研究了使用两个以上完整的全球导航卫星系统(GNSS)星座可实现的ARAIM服务能力和鲁棒性。此外,还指出了新作战情景下当前基线ARAIM用户算法存在的关键问题。结果表明,由于监测卫星子集的数量呈指数增长,当采用额外的星座时,计算负荷会显著增加。为了减轻这种影响,通过对多个故障假设进行分组,严格开发了一种高效的故障检测和排除(FDE)算法。为了适应星座之间不平等的性能水平,使用不同的完整性支持信息(ISM)值进行了一系列敏感性分析,并根据可用性给出了结果。
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