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Modern methods of preventing aircraft overrunning the runway

https://doi.org/10.26467/2079-0619-2022-25-2-8-19

Abstract

The landing of the aircraft has always been the most challenging and dangerous stage of the flight. In order to make a safe landing, the aircraft (A/C) requires reducing the vertical (at the stage of flare-out) and horizontal (prior to touchdown) components of the aircraft's flight speed vector, which in turn reduces the capabilities to increase lift and limits the crew's ability to perform maneuvers. At the same time, during landing the crew must align the aircraft with the runway (RW) and make a touchdown, subsequent A/C landing roll and stop within a rather limited area, which eventually and particularly, under the effect of contributing adverse factors (piloting errors, wind shear, icing, engine failure, aquaplaning, etc.) can cause the aircraft to overshoot and overrun the RW. Currently, as the analysis of aviation accidents statistics shows, the issue of preventing and alerting aircraft overrun is quite relevant. The search for a solution, in terms of preventing aircraft overrunning the runway (RW), is conducted as at the level of aviation authorities as among aircraft manufacturers, operators. Within the framework of this review, an attempt is made to identify and analyze the key factors affecting the dynamics of aircraft motion during landing, using information about aviation accidents that have occurred over the past few years. Notably, such aspects as a human factor and technical features of the operation of modern jet aircraft, influencing the A/C landing roll, are considered. In addition, special attention is paid to consider the methods of prevention and warning of A/C overrun with highlighting the approaches of passive and active protection. Within the framework of the analysis of active protection techniques, the principles of on-board avionic systems operation of the most major aircraft manufacturers, such as Boeing and Airbus, are considered. As an example of the passive protection, the experience of using special energy-absorbing destructible blocks installed next to the runway threshold, is analyzed.

About the Authors

S. F. Borodkin
Moscow State Technical University of Civil Aviation
Russian Federation

Sergey F. Borodkin, Candidate of Technical Sciences, Associate Professor of the Aerodynamics, Design and Aircraft Strength Chair

Moscow



A. I. Volynchuk
Moscow State Technical University of Civil Aviation; JSC "Royal Flight Airlines"
Russian Federation

Aleksey I. Volynchuk, Postgraduate of the Aerodynamics, Design and Aircraft Strength Chair, Moscow State Technical University of Civil Aviation; Category “A” Technician, JSC “Royal Flight Airlines”

Moscow



Sh. F. Ganiev
Moscow State Technical University of Civil Aviation
Russian Federation

Shamil F. Ganiev, Candidate of Technical Sciences, Associate Professor of the Flight and Life Safety Chair

Moscow



M. A. Kiselyov
Moscow State Technical University of Civil Aviation
Russian Federation

Mikhail A. Kiselyov, Doctor of Technical Sciences, Professor, the Head of the Aerodynamics, Design and Aircraft Strength Chair

Moscow



I. A. Nosatenko
Moscow State Technical University of Civil Aviation
Russian Federation

Igor A. Nosatenko, Postgraduate of the Aerodynamics, Design and Aircraft Strength Chair

Moscow



References

1. Mozolyako, A.V., Akimov, A.N. & Vorobyev, V.V. (2014). Status and development of runway overrun prevention systems. Nauchnyy Vestnik MGTU GA, no. 204, pp. 74–77. (in Russian)

2. Ermakov, A.L., Kiselev, M.A., Kublanov, M.S., Trofimov, V.V. & Tsipenko, V.G. (2019). Study of civil aircraft takeoff and landing characteristics under conditions of low friction coefficient using mathematical modeling. XXX nauchno-tekhnicheskaya konferentsiya po aerodinamike: materialy konferentsii, posvyashchennoy 150-letiyu so dnya rozhdeniya S.A. Chaplygina, pp. 113–114. (in Russian)

3. Muzhichek, S.M., Kiselev, M.A. & Sapozhnikov, A.V. (2018). Method forpreventing longitudinal aircraftrolling-off beyond airstrip and device for its implementation. Patent for the invention RU 2668008 C2, IPC B64F 5/00; B64C 25/00: publ. September 25, 14 p. (in Russian)

4. Noland, D. & Peterson, B. (2021). 13 Plane crashes that changed aviation. Popular mechanics. April 29. Available at: https://www.popularmechanics.com/flight/g73/12-airplane-crashesthat-changed-aviation/ (accessed: 28.11.2021).

5. Alaimo, A., Esposito, A., Orlando, C. & Simoncini, A. (2020). Aircraft pilots workload analysis: heart rate variability objective measures and NASA-Task load index subjective evaluation. Aerospace, vol. 7, issue 9, ID: 137. DOI: 10.3390/aerospace7090137 (accessed: 28.11.2021).

6. Ratté, P.S. (2018). Runway excursions: make it stop. DataLead. October 31. Available at: https://safetystanddown.com/en/runway-excursions-make-it-stop (accessed: 28.11.2021).

7. Mayolle, M., Pellet, S. & Lesceu, X. (2015). Lateral runway excursions upon landing. Safety first, July no. 20, pp. 1–14.

8. Hradecky, S. (2017). Accident: Eastern Air Lines B737 at New York on Oct 27th 2016, overran runway on landing long. Avherald, September 22. Available at: http://avherald.com/h?article=49ff6bcc (accessed: 28.11.2021).

9. Insley, J. & Turkoglu, C. (2020). Contemporary analysis of aircraft maintenance-related accidents and serious incidents. Aerospace, vol. 7, issue 6, ID: 81. DOI: 10.3390/aerospace7060081 (accessed: 28.11.2021).

10. Gandhewar, P. & Sonkusare, G.H. (2014). Runway excursion: a problem. OSR Journal of Mechanical and Civil Engineering (IOSR-JMCE), vol. 11, issue 3, Ver. II, pp. 75–78. DOI: 10.9790/1684-11327578

11. Distefano, N. & Leonardi, S. (2020). Aircraft runway excursion features: a multiple correspondence analysis. Aircraft Engineering and Aerospace Technology, vol. 91, no. 1, pp. 197–203. DOI: 10.1108/AEAT-11-2017-0244

12. Proud, S.R. (2020). Go-around detection using crowd-sourced ADS-B position data. Aerospace, vol. 7, issue 2, ID: 16. DOI: 10.3390/aerospace7020016 (accessed: 28.11.2021).

13. Kumar, S.G., Corrado, S.J., Puranik, T.G. & Mavris, D.N. Classification and analysis of go-arounds in commercial aviation using ADS-B data. Aerospace, vol. 8, issue 10, ID: 291. DOI: 10.3390/aerospace8100291 (accessed: 28.11.2021).

14. Yijian, (Jack) Shi. (2010). EMAS core material modeling with LS-DYNA. 11th International LS-DYNA user conference. Aerospace (2), pp. 16–21.

15. Orlova, L.V., Galiguzova, A.A. & Smirnova, A.D. (2020). The scope of artificial intelligence in aviation. Tendentsii razvitiya nauki i obrazovaniya, no. 67-1, pp. 35–38. (in Russian)

16. Yang, L., Wang, S., Liang, F. & Zhao, Z. (2021). A holistic approach for optimal pre-planning of multi-path standardized taxiing routes. Aerospace, vol. 8, issue 10, ID: 241. DOI: 10.3390/aerospace8090241 (accessed: 25.11.2021).

17. Ketabdari, M., Toraldo, E., Crispino, M. & Lunkar, V. (2020). Evaluating the interaction between engineered materials and aircraft tyres as arresting systems in landing overrun events. Case Studies in Construction Materials, vol. 13, ID: e00446. DOI: 10.1016/j.cscm.2020.e00446 (accessed: 25.11.2021).


Review

For citations:


Borodkin S.F., Volynchuk A.I., Ganiev Sh.F., Kiselyov M.A., Nosatenko I.A. Modern methods of preventing aircraft overrunning the runway. Civil Aviation High Technologies. 2022;25(2):8-19. https://doi.org/10.26467/2079-0619-2022-25-2-8-19

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ISSN 2079-0619 (Print)
ISSN 2542-0119 (Online)