使用触摸屏显示应用进行飞机飞行控制

W. Rouwhorst, R. Verhoeven, Marieke Suijkerbuijk, Tanja Bos, A. Maij, Mick Vermaat, R. Arents
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引用次数: 15

摘要

触摸屏技术正迅速逐步进入商用航空电子领域,并被引入驾驶舱。本文介绍了由荷兰航空航天中心(NLR)进行的试点实验的主要结果,该实验是欧盟第七框架计划ACROSS(减少压力和工作量的先进驾驶舱)项目的一部分,参见www.across-fp7.eu。该实验的重点是在民用运输机驾驶舱中使用新型触摸屏应用,并调查了(峰值)工作量减少的潜力。三种不同的触摸屏应用和相关的实验结果将被讨论。首先,解决了所谓的战术飞行控制操作的飞机,如改变飞机的速度,航向,高度,飞行水平或垂直速度。其次,建立了一个新颖的后期跑道变更功能,以支持机组决定在进近后期接受新的着陆跑道,同时仍然允许安全和轻松地配置飞机驾驶舱系统。同样,第三个新应用程序允许快速简便地选择备用机场,随后创建新的路线并选择到备用机场。在NLR的全动态飞行模拟器(GRACE)上进行了一项有飞行员参与的实验。基线形成了今天的飞机操作没有触摸屏的功能。使用主观工作量和情况意识评分,以及客观的眼动跟踪测量和时间分析。并对湍流强度的影响进行了研究。战术飞行控制应用的主要结果表明,在减少工作量方面,特别是在更严重的湍流下,设计还有进一步改进的空间。对于其他两种驾驶舱触摸屏应用,结果支持这样的结论:与基线相比,飞行员工作量减少,态势感知能力提高,任务执行速度更快,更容易。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Use of touch screen display applications for aircraft flight control
Touch screen technology is rapidly and progressively entering the world of commercial avionics and being introduced inside the cockpit. This paper presents the main results of a piloted experiment conducted by the Netherlands Aerospace Centre (NLR) as part of the ACROSS (Advanced Cockpit for Reduction Of StreSs and workload) project of the EU's 7th Frame Work Programme, see www.across-fp7.eu. The experiment focused on the use of novel touch screen applications in the cockpit of civil transport aircraft and investigated the potential for (peak-) workload reduction. Three different touch screen applications and associated experimental results will be discussed. Firstly the so-called tactical flight control operations of an aircraft is addressed, like changing the aircraft's speed, heading, altitude, flight level or vertical speed. Secondly a novel late runway change functionality was set up for supporting the crew decision to accept a new landing runway late in the approach while still allowing safely and easily configuring the aircraft cockpit systems. Similarly the third new application allowed for a fast and easy alternate airport selection process and subsequently a new route creation and selection towards the alternate airport. A piloted experiment was held in which ten airline crews participated on NLR's full motion flight simulator (GRACE). Baseline formed today's aircraft operations without touch screen functionality. Subjective workload and situation awareness ratings were used, as well as objective eye-tracking measurements and time-analysis. Also the effect of turbulence (intensity) was investigated. Main results for the tactical flight control application showed further room for design improvements in the field of workload reduction, especially under more severe turbulence. For the other two cockpit touchscreen applications the results supported the conclusions that pilot workload decreased, situation awareness improved and task execution was much faster and easier compared to the baseline.
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