Effectiveness of the ground-based transceiver (GBT) parrot system for monitoring GPS integrity for Alaska ATC "radar-like services" using ADS-B

Y.C. Lee, J. Moody, J. Reagan
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Abstract

In January of 2001, the Federal Aviation Administration (FAA) commissioned the first use of automatic dependent surveillance broadcast (ADS-B) based on the global positioning system (GPS) to support air traffic control (ATC) "radar-like services (RLS)." These services are available via ATC to nearly 200 equipped aircraft operating in the vicinity of Bethel, Alaska as part of the FAA's Capstone program to improve aviation safety in Alaska. RLS allow ATC to support instrument flight rules (IFR) separation of 5 nautical miles (nmi) based only on ADS-B surveillance. Since ADS-B information is being used by ATC for aircraft separation, some method to verify the integrity of the GPS/ADS-B data must be continually provided. The ADS-B concept, as defined in RTCA standards, relies on aircraft to "self-report" the integrity of the navigation data reported in the ADS-B message. System evaluations leading to commissioning of RLS showed the ADS-B data to be easily equivalent to radar surveillance in terms of accuracy, latency, and update rate. However, it highlighted some difficulties with the self-reported integrity concept for this "first generation" of ADS-B avionics, due mainly to excessive receiver autonomous integrity monitoring (RAIM) holes - from the ATC perspective. The resulting excessive number of false integrity alerts led to an FAA decision to disregard ADS-B self-reported integrity in the Bethel area and, instead, to monitor GPS integrity through a network of new ground position "parrot" monitors implemented along with the existing ADS-B receiving stations. The objective of this paper is to determine how effective this monitor system is at detecting integrity failures of the GPS satellites that could cause hazardously misleading information (HMI) over the Bethel, Alaska area. Although our results show that the existing parrot system is generally effective for conducting RLS in the Bethel area, we offer recommendations to the FAA to improve the performance of integrity monitoring in the area.
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地面收发器(GBT)鹦鹉系统使用ADS-B监测阿拉斯加ATC“类似雷达服务”的GPS完整性的有效性
2001年1月,美国联邦航空管理局(FAA)首次委托使用基于全球定位系统(GPS)的自动依赖监视广播(ADS-B)来支持空中交通管制(ATC)。“雷达式服务(RLS)。”作为美国联邦航空局提高阿拉斯加航空安全的Capstone计划的一部分,这些服务通过ATC提供给阿拉斯加伯特利附近近200架装备齐全的飞机。RLS允许ATC仅基于ADS-B监视支持5海里(nmi)的仪表飞行规则(IFR)分离。由于空管正在使用ADS-B信息进行飞机分离,因此必须不断提供一些方法来验证GPS/ADS-B数据的完整性。根据RTCA标准的定义,ADS-B概念依赖于飞机“自我报告”ADS-B消息中报告的导航数据的完整性。RLS调试前的系统评估表明,ADS-B数据在准确性、延迟和更新速度方面很容易等同于雷达监视。然而,从ATC的角度来看,它强调了“第一代”ADS-B航空电子设备自我报告完整性概念的一些困难,主要是由于过多的接收机自主完整性监测(RAIM)漏洞。由此产生的虚假完整性警报数量过多,导致FAA决定忽略Bethel地区ADS-B自我报告的完整性,而是通过与现有ADS-B接收站一起实施的新地面位置“鹦鹉”监视器网络来监测GPS完整性。本文的目的是确定该监测系统在检测GPS卫星完整性故障方面的有效性,这些故障可能会在阿拉斯加伯特利地区造成危险的误导信息(HMI)。虽然我们的研究结果表明,现有的鹦鹉系统在Bethel地区进行RLS通常是有效的,但我们向FAA提出了建议,以提高该地区完整性监测的性能。
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