摘要(英) |
This study is based on the fact that after the Taiwan Army Aviation Special Forces
Command received the military-purchased Black Hawk helicopter in 2014, it has gone through
army training and various combat and training tasks. The personnel have matured and become
a qualified pilot during the transition training, from the initial trainer and triage model to the current state-of-the-art Black Hawk helicopters, and have become a part of the army′s practical warfighting force.
This study focuses on the pilots of the 601st and 602nd Brigade of the Army Aviation
Brigade. Their pilots are Taiwan′s main pilots in peacetime and wartime. As the saying goes,
"If a worker wants to do his job well, he must first sharpen his tools." , pilots must complete
Black Hawk helicopter qualification training within a limited time, and they must also
understand the advantages and disadvantages of learning and utilizing the three major digital
cockpit functions of the Black Hawk helicopter.
This study used the expert interview method to integrate the opinions of overseas qualified instructors who returned to Taiwan for training as well as local qualified instructors
who subsequently passed training through the Technical Assistance Field Team. Combining
the operational experience in peacetime and training, we learned about the army′s flight training
including basic, tactical, instrument and night flight stages, a questionnaire was conducted on the interface, arrangement, and function usage of the three major digital cockpit functions. After investigation, it was discovered that there were differences in flight hours and flight qualifications about the degrees of situational awareness and the methods of use in different flight stages; Then find the best way for pilots to learn to change gears and the key points emphasized by instructors are proposed to help Army Black Hawk helicopter pilots learn efficiently. |
參考文獻 |
一、中文文獻
1.丁玉蘭:《人机工程学》,第 4 版,北京:北京理工大学出版社,2011 年 4 月。
2.蔡峯誼: 類比式儀表與數位化儀表對直升機飛行員學習效果之探討,碩士論文,中
華科技大學,105 年 7 月
二、英文文獻
3.Aero-News Network:《UH-60M-Blackhawk-Right-0506a.jpg (400×300)》,(2023,
September 3)。from:http://www.aero-news.net/images/content/military/2006/UH-60M-
Blackhawk-Right-0506a.jpg
4. Aviation Today. (2023, November 26). Rockwell_UH-60M.jpg (630×354). Retrieved from
https://www.aviationtoday.com/wp-content/uploads/2016/10/Rockwell_UH-60M.jpg
5.Bugeye Technologies. (2023, September 3). UH-60 Flight Director / Display Control Panel
(FD/DCP). Retrieved from https://www.bugeyetech.com/product/uh-60-flight-director-
display-control-panel-fd-dcp/
6. Earl L. Wiener, (1989,June)Human Factors of Advanced Technology ("Glass Cockpit")
Transport Aircraft, NASA Contractor Report 177528,National Aeronautics and Space
Administration
7. Frasca Flight Simulation. (2023, November 26). Bell TH-67 Simulator. Retrieved from
https://www.frasca.com/products/bell-th-67/
8. Hiremath, V., Proctor, R. W., Fanjoy, R. O., Feyen, R. G., & Young, J. P. (2009, July 19–
24). Comparison of pilot recovery and response times in two types of cockpits. In
Proceedings of the Symposium on Human Interface (pp. 766–775). San Diego, CA, USA
9. Hoc, J.-M. (2000). From human – machine interaction to human – machine cooperation.
Ergonomics, 43(7), (pp.833–843)
10. Igor I Sikorsky Historical Archives. (2023, November 27). The Sikorsky Black Hawk in
U.S. Military Service. Retrieved from https://sikorskyarchives.com/black-hawk-in-us-
military-service/
11.L3Harris. (2023, November 26). FliteScene® Digital Map | L3Harris® Fast. Forward.
Retrieved from https://www.l3harris.com/all-capabilities/flitescene-digital-map
12.Media, O. (2023, December 3). Digital cockpit design, leveraged for UH-60L Black Hawk
upgrade, on display at IDEX - Military Embedded Systems. Retrieved from
https://militaryembedded.com/avionics/displays/digital-cockpit-design-leveraged-for-uh-
60l-black-hawk-upgrade-on-display-at-idex
13.Moriarty, D. (2015). Automation management. In Practical Human Factors for Pilots (pp.
263).
14.Moriarty, D. (2015). Automation management. In Practical Human Factors for Pilots (pp.
250).
15.Moriarty, D. (2015). Introduction to human factors. In Practical Human Factors for Pilots
(pp. 1–10).
16. Norman, D. A. (1984). Stages and levels in human-machine interaction. International
Journal of Man-Machine Studies, 21(4), (pp.365–375). https://doi.org/10.1016/S0020-
7373(84)80054-1
17. Rash et al. (2001), Accident Rates in Glass Cockpit Model U.S. Army Rotary-Wing
Aircraft, (pp.12–20)
18. Socha, V., Socha, L., Hanakova, L., Valenta, V., Kusmirek, S., & Lalis, A. (2020). Pilots’
performance and workload assessment: Transition from analogue to glass-cockpit. Applied
Sciences, 10(15), 5211. https://doi.org/10.3390/app10155211
19. Young, J., Fanjoy, R., & Suckow, M. (2006). Impact of glass cockpit experience on
manual flight skills. JAAER. https://doi.org/10.15394/jaaer.2006.1501
20. ZedaSoft, Inc. (2023, November 26). OH-58 Kiowa Warrior. Retrieved from
https://www.zedasoft.com/product/oh-58-kiowa-warrior |