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Journal of Information & Systems Management (JISM)

A Mathematical Model of the Aircraft System for Automatic Guidance
Olivera Petrovska, Vesna Antoska Knights and Stojche Deskovski
Olivera Petrovska is with the Faculty of Technical Science Bitola, Ivo Lola Ribar bb, 7000 Bitola, Macedonia., Vesna Antoska Knights is with the Faculty of Technology and Technical Sciences Veles, Dimitar Vlahov bb, 1400 Veles Macedonia., Stojche Deskovsk
Abstract: We have presented a mathematical model of the aircraft system for automatic guidance for landing using GPS –GBAS. Further we performed the simulations for landing guidance system when using the ILS and GPS – GBAS. To do the simulations, the programming package MATLAB/SIMULINK is used. In the current work, a, comparative analysis of the results of the simulations and the discussion the advantages of GBAS in terms of ILS are given.
Keywords: Automatic Landing, Mathematical Model, Aircraft, Autopilot, GPS, GBAS
DOI:https://doi.org/10.6025/jism/2022/12/1/12-21
Full_Text   PDF 3.25 MB   Download:   224  times
References:

[1] International civil aviation organization (ICAO), Guide for Ground Based Augmentation System Implementation, May 2013. http://www.icao.int/SAM/eDocuments/GBASGuide.pdf [2] Steen, M., Feuerle, T., Stanisak, M., Yoshihara, T., Hecker, P. (2012). GBAS Curved Approach Procedures: Advantages, Challenges and Applicability, ICAS 2012- 28th International Congress of the Aeronautical Sciences [3] Ambrožová, S. (2013). Pleninger: Implementation >f GBAS System 0t the Václav Havel Airport, Number 2, Volume VIII, July 2013. http://pernerscontacts.upce.cz/30_2013/Ambrozova.pdf [4] Agarwal, S., Hablani, H.B. (2011). Automatic Aircraft Landing over Parabolic Trajectory using Precise GPS Measurements, 2nd International Conference and workshop on Emerging Trends in Technology, Proceedings published by International Journal of Computer Applications, 38-45. [5] De Lellis, E., Corraro, F., Ciniglio, U., Canzolino, Pa., Garbarino, L., Gaglione, S., Nastro, V. An EGNOS Based Navigation System for Highly Reliable Aircraft Automatic Landing, http://dsa.uniparthenope.it/dsa_web/LinkClick.aspx?filetic ket=E7ExYS7S4Wc%3D&tabid=199&mid=908&language=en-US. [6] [7] Roskam, J. (2001). Airplane Flight Dynamics and Automatic Flight Controls, part I, DAR corporation, 120 East Ninth Street, Suite 2, Lawrence, KS 66044, USA, 2001. [8] Underwood, SmartPath® SLS-4000 - Ground Based Augmentation System (GBAS), Honeywell ppt presentation ([PPT]GBAS - Airport Show) [9] Delahaye, D., Puechmorel, S., Tsiotras, P., Feron, E. (2013). Mathematical Models for Aircraft Trajectory Design: A Survey, Author manuscript, published in, EIWAC 2013, 3rd ENRI International Workshop on ATM/CNS, Tokyo : Japan. [10] Bell, J. (2010). Basic GPS Navigation, A practical guide for GPS navigation, Edited November 16.


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