Creation of a novel microburst alarm for Air Traffic Control using a signal design framework

IF 3.9 Q2 TRANSPORTATION
Anna Clebone Ruskin , Lee Moore , Karl Kaufmann , Ben Willems , Keith J. Ruskin
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引用次数: 0

Abstract

In this study, we used a previously validated alarm design framework to design and test a new microburst alarm for air traffic controllers.

Methods

Two air traffic controllers participated in a detailed structured interview, describing aspects of the current alarm that worked well and identifying features that should be changed. They then chose the properties most important to the design of this specific alarm. This information was used to develop a prototype microburst alarm while making iterative changes. A short interview asking about those properties was then conducted with sixty-two controllers at a national conference.

Results

We developed an effective microburst alarm using the Signal Design Framework. Informativeness, Distinguishability, Saliency, Disruptiveness, Exclusivity, and Recognizability were improved by adding an electronically accelerated verbal component (‘Microburst!’) to the beginning and midway through the alert. The tonal component, volume, and timing of the prototype alarm were similar to that of the original alarm. During the alarm testing phase, most controllers agreed that the prototype would work well in both Air Traffic Control Tower and TRACON environments. Controllers agreed that incorporating an audible ‘Microburst!’ helped to direct their attention to the source of the alarm, especially in facilities where this alarm is uncommon. Controllers also spoke favorably of the length, pitch, oscillation, and timbre of the auditory component.

Conclusions

We used a validated framework to develop a new alarm that would work well for controllers in their environment. The framework facilitated design, iterative testing, and large-scale evaluation.
利用信号设计框架为空中交通管制创建新型微爆警报器
在本研究中,我们使用了之前验证过的警报设计框架,为空中交通管制员设计并测试了一种新的微爆警报。方法两名空中交通管制员参加了详细的结构化访谈,描述了当前警报中运行良好的方面,并确定了应该更改的功能。然后,他们选择了对这一特定警报设计最重要的特性。这些信息被用于开发微爆警报原型,同时进行反复修改。然后,在一次全国会议上对 62 名控制员进行了简短访谈,询问了这些特性。通过在警报开始和中途添加电子加速语言成分('Microburst!'),提高了信息性、可区分性、显著性、干扰性、排他性和可识别性。原型警报的音调成分、音量和时间与原始警报相似。在警报测试阶段,大多数管制员都认为原型警报在空中交通管制塔台和 TRACON 环境中都能很好地发挥作用。管制员们一致认为,加入 "微爆!"的声音有助于引导他们注意警报来源,尤其是在这种警报并不常见的设施中。管制员还对听觉部分的长度、音调、振荡和音色给予了好评。该框架为设计、迭代测试和大规模评估提供了便利。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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来源期刊
Transportation Research Interdisciplinary Perspectives
Transportation Research Interdisciplinary Perspectives Engineering-Automotive Engineering
CiteScore
12.90
自引率
0.00%
发文量
185
审稿时长
22 weeks
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