Quantifying pilot contribution to flight safety during drive shaft failure

L. Kramer, T. Etherington, M. C. Last, Kellie D. Kennedy, R. Bailey
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引用次数: 7

Abstract

Accident statistics cite the flight crew as a causal factor in over 60% of large transport aircraft fatal accidents. Yet, a well-trained and well-qualified pilot is acknowledged as the critical center point of aircraft systems safety and an integral safety component of the entire commercial aviation system. The latter statement, while generally accepted, cannot be verified because little or no quantitative data exists on how and how many accidents/incidents are averted by crew actions. A joint NASA/FAA high-fidelity motion-base simulation experiment specifically addressed this void by collecting data to quantify the human (pilot) contribution to safety-of-flight and the methods they use in today's National Airspace System. A human-in-the-loop test was conducted using the FAA's Oklahoma City Flight Simulation Branch Level D-certified B-737-800 simulator to evaluate the pilot's contribution to safety-of-flight during routine air carrier flight operations and in response to aircraft system failures. These data are fundamental to and critical for the design and development of future increasingly autonomous systems that can better support the human in the cockpit. Eighteen U.S. airline crews flew various normal and non-normal procedures over a two-day period and their actions were recorded in response to failures. To quantify the human's contribution to safety of flight, crew complement was used as the experiment independent variable in a between-subjects design. Pilot actions and performance during single pilot and reduced crew operations were measured for comparison against the normal two-crew complement during normal and non-normal situations. This paper details the crew's actions, including decision-making, and responses while dealing with a drive shaft failure — one of 6 non-normal events that were simulated in this experiment.
传动轴故障时飞行员对飞行安全的量化贡献
事故统计数据显示,在60%以上的大型运输机致命事故中,机组人员是造成事故的原因。然而,一个训练有素的合格飞行员被认为是飞机系统安全的关键中心点,是整个商业航空系统不可缺少的安全组成部分。后一种说法虽然被普遍接受,但无法证实,因为很少或根本没有量化数据表明机组人员的行动如何避免了多少事故/事件。NASA/FAA联合开展的高保真运动模拟实验通过收集数据来量化人类(飞行员)对飞行安全的贡献,以及他们在当今国家空域系统中使用的方法,专门解决了这一空白。使用美国联邦航空局俄克拉荷马城飞行模拟分部d级认证的B-737-800模拟器进行了人在环测试,以评估飞行员在日常航空承运人飞行操作和飞机系统故障响应中对飞行安全的贡献。这些数据对于未来越来越自主的系统的设计和开发至关重要,这些系统可以更好地支持驾驶舱内的人类。18名美国航空公司机组人员在两天时间内执行了各种正常和非正常程序,他们的行动被记录下来,以应对故障。为了量化人类对飞行安全的贡献,在受试者间设计中,机组人员补足率作为实验自变量。在正常和非正常情况下,测量了单飞行员和减少机组操作时飞行员的行动和表现,并与正常的两名机组人员进行了比较。本文详细介绍了机组人员在处理传动轴故障时的行为,包括决策和反应,传动轴故障是本实验中模拟的6个非正常事件之一。
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