基于SDR的航电用宽带无线电飞行性能分析

A. Nguyen, A. Amrhar, Eric Zhang, J. Zambrano, R. Landry
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引用次数: 0

摘要

随着旅客数量的增加,航空业也需要适应不断增长的新服务和新应用的需求。作为工业4.0时代的主要特征之一,在飞机上保持持续和高质量的互联网连接(也称为机上娱乐连接,IFEC)是最需要的服务之一。在探索的解决方案中,宽带无线电(WBR)于2017年首次作为多模软件定义航空电子无线电(MM-SDAR)的一个模块提出,是满足对IFEC应用日益增长需求的航空电子模块。基于自适应编码和调制(ACM)方案,该软件定义航空电子模块(SDAM)承诺根据传输信道的实时条件提供最佳数据速率。此外,作为一个基于sdr的模块,它是可重构的,可以在未来的射频航空电子架构中以兼容ima(集成模块化航空电子)的方式实现。为了评估该WBR模块在真实飞行条件下的运行情况,2017年对其进行了飞行试验,取得了积极的结果。本文旨在分析WBR的飞行性能(包括误码率-误码率模式和视频流模式),并重点展示ACM机制在复杂环境下的容量和运行。在传输功率为10 W、带宽为675 kHz的情况下,WBR在这些飞行中的最大倾斜范围达到5 NM, ACM机制帮助系统保持了360 kbit/s左右的平均吞吐量。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
In-Flight Performance Analysis of a Wideband Radio Using SDR for Avionic Applications
Along with the increase in the number of passengers, aviation industry also needs to be adapted to the increasing demands of new services and applications. As one of the leading features of the Industry 4.0 era, maintaining a constant and high quality internet connectivity in-flight (also known as the In-Flight Entertainment Connectivity, IFEC) is one of the most demanded services. Among the explored solutions, the Wideband Radio (WBR), first presented in 2017 as a module in the Multi-Mode Software Defined Avionic Radio (MM-SDAR), is the avionic module that addresses the ever-increasing demand for the IFEC application. Based on the Adaptive Coding and Modulation (ACM) scheme, this Software Defined Avionic Module (SDAM) promises to deliver an optimum data rate regarding the real-time condition of the transmission channels. Moreover, as an SDR-based module, it is reconfigurable and could be implemented in an IMA-compatible (Integrated Modular Avionics) fashion in the future RF avionic architecture. In order to evaluate the operation of this WBR module in real flight conditions, it was flight tested in 2017, and positive results were obtained. This paper aims to provide an analysis of the in-flight performance (with Bit Error Rate - BER mode and video streaming mode) of the WBR, and concentrates on demonstrating the capacity and the operation of the ACM mechanism in a complex environment. With a transmission power of 10 W and a bandwidth of 675 kHz, the maximum slant range of the WBR during these flights reached 5 NM, and the ACM mechanism helped the system maintain an average throughput of around 360 kbit/s.
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