CLASSIC ANALOG PILOT INSTRUMENTS AND “GLASS COCKPIT” IN THE CONTEXT OF PILOT’S PREFERENCES AND CONFIDENCE IN THEIR USE DURING FLIGHT
Main Article Content
Abstract
With the development of aviation, more and more improvements have been made to existing aviation technologies and applications. These efforts are aimed at optimizing every aviation operation and ensuring maximum safety during flight. Cockpit and in-flight equipment have also begun to seek out new technologies. Since the introduction of new technologies into the aviation world, pilots have been tasked with adapting to new instrument readings. This article is to present the authors' research to determine the degree of pilots' confidence and comfort in using digital glass cockpit imaging, along with an indication of respondents' subjective opinion of digital and analog imaging of pilot information. The study used a diagnostic survey on a sample of 67 respondents to show the differences in piloting and individual pilots' attitudes toward a particular way of visualizing instrument indications in the cockpit. The analysis of the data showed that the vast majority of pilots have experience in performing aircraft operations in a "glass cockpit" and overwhelmingly prefer such a display of indications or do not experience significant differences in piloting in the context of instrument display. Respondents note differences in flying with digital versus analog equipment. In addition, they indicate that they are much more likely to make mistakes resulting from misreading pilot information when using analog flight instruments. At a time when "glass cockpits" are becoming more widely used in general aviation as well, it is necessary to know the differences resulting from the different way of presenting information, but especially the preferences of the pilot crews, who are directly responsible for flight safety.
Downloads
Article Details
This work is licensed under a Creative Commons Attribution-NonCommercial-NoDerivatives 4.0 International License.
References
Barber P.J., Folkard S., Reaction time under stimulus uncertainty with response certainty, Journal of Experimental Psychology No. 93.
Bernard F., Zare M., Paquin R., Sagot J.-C., A new approach for human factors integration into design for maintenance: a case study in the aviation industry, International Journal of Human Factors and Ergonomics, Vol. 10, No. 2, 2023.
Burian B.K., Barski I., Dismukes K., The challenge of Aviation Emergency and Abnormal Situations, NASA Report, Ames Research Center (Moffat Field, California: NASA 2005).
Burian B.K., Dismukes R.K., Barshi I., The Emergency and Abnormal Situations Project, [in:] ed.
T. McCarthy, Proceedings of the ISASI 2003 Conference, Washington, D.C., August, 2003.
Chen J., Yu S., Wang S., Lin Z., Liu G., Deng L., Aircraft Cockpit Ergonomic Layout Evaluation Based on Uncertain Linguistic Multiattribute Decision Making, Advances in Mechanical Engineering, 2014.
Dąbrowska J., Czynnik ludzki w lotnictwie, Instytut Lotnictwa, Warszawa 2011.
G500/G600, Pilot’s Guide, Garmin Ltd. U.S.A. 2016.
Flin R., Agnew C., Human factors in safety management, Human factors and ergonomics for the gulf cooperation council, CRC Press 2018.
Grenda B., Turzyńska H., Czynnik ludzki i jego wpływ na bezpieczeństwo lotów, ASzWoj, Warszawa 2016.
Hengyang W., Damin Z., Xiaoru W., Qun W., An experimental analysis of situation awareness for cockpit display interface evaluation based on flight simulation, Chinese Journal of Aeronatics, Vol. 26, Isse 4, 2013.
Huettig G., Anders G., Tautz A., Mode Awareness in a modern glass cockpit attention allocation to mode information. [in:] ed. R. Jensen, Proceedings of the 1999 Ohio State University Aviation Psychology Conference. Dayton, OH: Ohio State University.
Ilków A., Czynnik ludzki w systemie bezpieczeństwa ruchu lotniczego, Warszawa 2011.
Instrument Flying Handbook, Chapters 5-7, Federal Aviation Administration, U.S. Department of Transportation, FAA-H-8083-15B.
Klich E., Szczygieł J., Bezpieczeństwo lotów w transporcie lotniczym, ITE-PIB, Radom 2010.
Kozuba J., Czynnik ludzki – rola symulatora lotniczego w szkoleniu lotniczym, Logistyka 6, 2011.
Kozuba J., Compa T., Human Factor – likehood of the air Crew training on situational awareness shape, Logistyka, nr 3, 2012.
Moskowitz G.B., Zrozumieć siebie i innych, Psychologia poznania społecznego, Psychologia XXI wieku, Gdańsk 2009.
Neretin E.S., Lunev E.M., Grigoriev N.M., Ivanov A.S., Aircraft cockpit information field control methodology, Journal of Physics: Cinference Series, 2021.
Polak Z., Rypulak A., Awionika, przyrządy i systemy pokładowe, WSOSP, Dęblin 2002.
Rouwhorst W., Use of touch screen display applications for aircraft flight control, NLR – Netherlands Aerospace Centre, 2018.
Sherry L., Mauro R., Trippe J., Desgin of a Primary Flight Display (PFD) to Avoid Controlled Flight into Stall, Engineering, 2016.
Teperi A.-M., Paajanen T., Asikainen I., Lantto E., From must to mindset: Outcomes of human factor practices in aviation and railway companies, Safety Science, Vol. 158, 2023.
The Airline Pilots. “EFIS”, https://www.theairlinepilots.com/forumarchive/pilotslounge/efis.pdf, [accessed:16.10.2022].
Turgay A., Dreyery D., Pankratz F., Schubotz R., A generic virtual reality flight simulator, 2016.
Wiener E.L., Human Factors of Advanced Technology (“Glass Cockpit”), Transport Aircraft, Nasa Contractor Report 177528, Ames Research Center, Moffett Field, United States 1989.