Human error on the flight deck

Despite terrorist bombs and structural failures, human error on the flight deck continues to account for the majority of aircraft accidents. The Royal Air Force (RAF) Institute of Aviation Medicine (IAM) has investigated the psychology of such error since the early 1970s, and to this end has used two principal techniques. The first has involved assisting in the official inquiries into both RAF and civil flying accidents, and the second has involved setting up a reporting system that permits any commercial pilot to report his own everyday errors, in complete confidence, to the RAF IAM. The latter system possesses the clear benefit of gathering error data untainted by considerations of culpability, and sometimes permits system rectification before the occurrence of accidents. This paper examines selected examples of errors associated with the design of equipment and with the social psychology of crews, and suggests that some consideration of the psychology of organizations may be necessary to ensure that the problems of human error are given the degree of consideration they require.

2015 ◽  
Vol 101 (2) ◽  
pp. 186-187
Author(s):  
A Wrigley

AbstractHypoxia training at the Royal Air Force Centre of Aviation Medicine (RAF CAM) has traditionally involved the use of a hypobaric chamber to induce hypoxia. While giving the student experience of both hypoxia and decompression, hypobaric chamber training is not without risks such as decompression sickness and barotrauma. This article describes the new system for hypoxia training known as Scenario-Based Hypoxia Training (SBHT), which involves the subject sitting in an aircraft simulator and wearing a mask linked by hose to a Reduced Oxygen Breathing Device (ROBD). The occupational requirements to be declared fit for this new training method are also discussed.


2020 ◽  
pp. 232-244
Author(s):  
James Beldon ◽  
Peter W. Gray

This chapter argues that courses devoted to airpower and spacepower history can offer a natural addition to civilian university programs. The inclusion of such courses can also serve as an important adjunct to courses devoted to the social and cultural impacts of science and technology. In the classroom, a close reading of the writings of airpower theorists' works can reveal the social, political, and cultural assumptions that shaped each man's worldview and the technological expectations of the time. Beyond these the author argues that the study of past and contemporary uses of airpower naturally and importantly can and should lead to discussions of the ethics and morality of specific weapons systems, national strategies and warfighting generally.


The Royal Air Force Institute of Aviation Medicine is located within the perimeter of the Royal Aircraft Establishment, Farnborough as a lodger unit of the Air Ministry. It was first established in 1939, under the direction of Professor Sir Bryan Matthews, and its aim today is exactly that of early war years, namely, to investigate those factors which impair the efficiency of flying personnel in flight, and impair their chances of safety or survival in emergencies in flight or thereafter on the sea or land. In the United Kingdom it is the main laboratory carrying out such work, and thus has come to be the chief source of biological knowledge to the aircraft industry. With regard to giving advice to the Royal Air Force, the Institute is a part of the entire medical branch, but works closely through Flying Personnel Medical Officers, who are responsible for carrying out investigations at the operational squadrons. These officers can interpret directly the biological advice which results from studies in the Institute, but there are no comparable links in industry in this country.


1981 ◽  
Vol 34 (2) ◽  
pp. 240-246
Author(s):  
V. David Hopkin

Mr Hopkin, Senior Principal Psychologist at the Royal Air Force Institute of Aviation Medicine, discusses the human implications of recent advances in the automation of data processing and display as affecting both the role of the navigator and the safety of navigation. This paper was presented in London on 11 December 1980 at a joint meeting of the Institute and the Nautical Institute.


2020 ◽  
Vol 10 (2) ◽  
pp. 103-111
Author(s):  
Andrey K. Babin ◽  
Andrew R. Dattel ◽  
Margaret F. Klemm

Abstract. Twin-engine propeller aircraft accidents occur due to mechanical reasons as well as human error, such as misidentifying a failed engine. This paper proposes a visual indicator as an alternative method to the dead leg–dead engine procedure to identify a failed engine. In total, 50 pilots without a multi-engine rating were randomly assigned to a traditional (dead leg–dead engine) or an alternative (visual indicator) group. Participants performed three takeoffs in a flight simulator with a simulated engine failure after rotation. Participants in the alternative group identified the failed engine faster than the traditional group. A visual indicator may improve pilot accuracy and performance during engine-out emergencies and is recommended as a possible alternative for twin-engine propeller aircraft.


1996 ◽  
Vol 41 (1) ◽  
pp. 46-47
Author(s):  
Thomas O. Blank
Keyword(s):  

1995 ◽  
Vol 40 (2) ◽  
pp. 103-106
Author(s):  
Charles G. McClintock ◽  
D. Michael Kuhlman

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