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Deploying a route optimization EFB application for commercial airline operational trials

机译:部署航线优化EFB应用程序以进行商业航空公司的运营试验

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The Traffic Aware Planner (TAP), developed for NASA Langley Research Center to support the Traffic Aware Strategic Aircrew Requests (TASAR) project, is a flight-efficiency software application developed for an Electronic Flight Bag (EFB). Tested in two flight trials and planned for operational testing by two commercial airlines, TAP is a real-time trajectory optimization application that leverages connectivity with onboard avionics and broadband Internet sources to compute and recommend route modifications to flight crews to improve fuel and time performance. The application utilizes a wide range of data, including Automatic Dependent Surveillance Broadcast (ADS-B) traffic, Flight Management System (FMS) guidance and intent, on-board sensors, published winds and weather, and Special Use Airspace (SUA) schedules. This paper discusses the challenges of developing and deploying TAP to various EFB platforms, our solutions to some of these challenges, and lessons learned, to assist commercial software developers and hardware manufacturers in their efforts to implement and extend TAP functionality in their environments. EFB applications (such as TAP) typically access avionics data via an ARINC 834 Simple Text Avionics Protocol (STAP) server hosted by an Aircraft Interface Device (AID) or other installed hardware. While the protocol is standardized, the data sources, content, and transmission rates can vary from aircraft to aircraft. Additionally, the method of communicating with the AID may vary depending on EFB hardware and/or the availability of onboard networking services, such as Ethernet, WIFI, Bluetooth, or other mechanisms. EFBs with portable and installed components can be implemented using a variety of operating systems, and cockpits are increasingly incorporating tablet-based technologies, further expanding the number of platforms the application may need to support. Supporting multiple EFB platforms, AIDs, avionics datasets, and user interfaces presents a challenge for software developers and the management of their code baselines. Maintaining multiple baselines to support all deployment targets can be extremely cumbersome and expensive. Certification also needs to be considered when developing the application. Regardless of whether the software is itself destined to be certified, data requirements in support of the application and user interface elements may introduce certification requirements for EFB manufacturers and the airlines. The example of TAP, the challenges faced, solutions implemented, and lessons learned will give EFB application and hardware developers insight into future potential requirements in deploying TAP or similar flight-deck EFB applications.
机译:专为NASA兰利研究中心开发的“交通感知计划器”(TAP)是为“交通感知战略空勤人员请求”(TASAR)项目提供支持的,它是为电子飞行包(EFB)开发的飞行效率软件应用程序。 TAP是一项实时航迹优化应用程序,已在两次飞行试验中进行了测试,并计划由两家商业航空公司进行运营测试,该应用程序利用与机载航空电子设备和宽带互联网资源的连通性来计算并向飞行机组推荐航线修改,以提高燃油效率和时间表现。该应用程序利用各种数据,包括自动相关监视广播(ADS-B)交通,飞行管理系统(FMS)指导和意图,机载传感器,已发布的风和天气以及特殊用途空域(SUA)时间表。本文讨论了将TAP开发和部署到各种EFB平台的挑战,我们针对其中一些挑战的解决方案以及所汲取的经验教训,以帮助商业软件开发人员和硬件制造商努力在其环境中实现和扩展TAP功能。 EFB应用程序(例如TAP)通常通过由飞机接口设备(AID)或其他已安装硬件托管的ARINC 834简单文本航空电子协议(STAP)服务器访问航空电子数据。虽然协议是标准化的,但是数据源,内容和传输速率可能因飞机而异。另外,与AID进行通信的方法可能会有所不同,具体取决于EFB硬件和/或板载网络服务的可用性,例如以太网,WIFI,蓝牙或其他机制。具有便携式和已安装组件的EFB可以使用多种操作系统来实现,并且座舱越来越多地采用基于平板电脑的技术,从而进一步扩展了应用程序可能需要支持的平台数量。支持多个EFB平台,AID,航空电子数据集和用户界面,对软件开发人员及其代码基线的管理提出了挑战。维持多个基准以支持所有部署目标可能非常麻烦且昂贵。开发应用程序时还需要考虑认证。无论软件本身是否注定要进行认证,支持应用程序和用户界面元素的数据要求都可能为EFB制造商和航空公司引入认证要求。 TAP的示例,面临的挑战,解决方案的实施以及所汲取的经验教训,将使EFB应用程序和硬件开发人员深入了解部署TAP或类似的飞行甲板EFB应用程序的未来潜在需求。

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