K. Morioka, J. Naganawa, N. Kanada, S. Futatsumori, A. Kohmura, N. Yonemoto, Y. Sumiya
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引用次数: 4
Abstract
System wide information management (SWIM) is a recent concept for providing efficient and safe information sharing in civil aviation. The goal in implementing SWIM is to achieve seamless air traffic management (ATM) services worldwide through the efficient integration of the current ATM systems. In this paper, we consider the wireless media to access SWIM. In the International Civil Aviation Organization (ICAO), the aeronautical mobile airport communications system (AeroMACS) is standardized for the next generation airport surface communication system. It is effective to share various types of information among air traffic controllers, pilots, and airport operators, not only on airport surface, but also in taking off and landing by AeroMACS. However, AeroMACS is intended to be used at speeds of 120km/h or below. In this paper, we study the possibility of using AeroMACS while an aircraft is moving at over 120km/h, as would occur in takeoff and landing situations. We conducted flight tests using an AeroMACS standard-compliant prototype system and an experimental aircraft. In the experiments, we obtained a received signal strength indicator (RSSI) to investigate 5GHz ground-to-air propagation. The results revealed that an onboard antenna configuration involving vertical placement at the top and bottom of the aircraft body is effective in achieving multiple input multiple output (MIMO) operation. Additional throughputs measurements showed that it was possible for AeroMACS to access SWIM both in takeoff and landing situations at an aircraft speed of 200km/h.
全系统信息管理(System wide information management, SWIM)是民航领域为提供高效、安全的信息共享而提出的新概念。实施SWIM的目标是通过有效整合现有的空中交通管理系统,在全球范围内实现无缝的空中交通管理(ATM)服务。在本文中,我们考虑无线媒体访问SWIM。在国际民用航空组织(ICAO)中,航空移动机场通信系统(AeroMACS)被标准化为下一代机场地面通信系统。在空中交通管制员、飞行员和机场运营者之间有效地共享各种类型的信息,不仅在机场地面上,而且在由AeroMACS起飞和降落时也是如此。然而,AeroMACS计划在120公里/小时或以下的速度下使用。在本文中,我们研究了在飞机以超过120公里/小时的速度移动时使用AeroMACS的可能性,就像在起飞和降落情况下发生的那样。我们使用符合AeroMACS标准的原型系统和一架实验飞机进行了飞行测试。在实验中,我们获得了一个接收信号强度指示器(RSSI)来研究5GHz地空传播。结果表明,垂直放置在机身顶部和底部的机载天线配置可以有效地实现多输入多输出(MIMO)操作。额外的吞吐量测量表明,在飞机速度为200公里/小时的起飞和降落情况下,AeroMACS都可以使用SWIM。