MAIN APPROACHES TO SHIP TRAFFIC CONTROL ON COURSE
DOI:
https://doi.org/10.32703/2617-9040-2022-39-19Keywords:
controllability, perturbation, deviation, PID law.Abstract
The management of the vessel's course on the course is an important maritime quality that determines the effectiveness of the vessel's management. The environmental conditions in which course management tasks need to be addressed are of a different nature - limited visibility, stormy weather, icing, shallow water, tidal phenomena, narrow conditions, the presence of other vessels, and so on. All these aspects cannot be comprehensively considered by traditional mathematical methods, ensuring the necessary adequacy of the actual process.
This paper highlights the existing approaches to the management of ship traffic on the course such as course management, disturbance management, ship traffic management on the basis of long-term forecasting, proportional-integral-differential (PID) law of control (deviation control), intellectual approaches to court management, in particular, synergetic approach, use of neural networks, fuzzy logic and evolutionary (genetic) algorithms-languages.
References
REFERENCES
Sobolev, H.V. (1976). Upravliaemost korablia y avtomatyzatsyia sudovozhdenyia. L.: Sudostroenye, [in Russian].
Pershyts, R.Ya. (1983). Upravliaemost y upravlenye sudnom . L.: Sudostroenye, [in Russian].
Vorobev, Yu.L. (1992). Hydrodynamyka sudov v stesnennom farvatere L.: Sudostroenye, [in Russian].
Fossen, T.I. (2002). Marine Control Systems Guidance, Navigation and Control of Ships, Rigs and Underwater Vehicles. Marine Cybernetics. Trondheim, Norway, 2002. 570 p.
Nomoto, K., Taguchi, T., & Honda, R. (1957). On the steering qualities of ships. Singapore, International ship Building Congress, p. 354-370.
Lewandowski, E.M. (2003). The Dynamics of Marine Craft: Maneuvering and Seakeeping. N.Y.: World Scientific Publishing Company, 300 p.
McCallum, I.R. (1985). A ship steering mathematical model for all maneuvering regimes. N.Y.: AMIVAR, 21 p.
Maltsev, A.S., Golikov, V.V., & Safyn, Y.V. (2013). Metodolohycheskye osnovy manevryrovanyia sudov pry sblyzhenyy. Odessa: ONMA.
Pettersen, K.Y., & Leferber, E. (2001). Way-point tracking control of ships. In proceedings of the 40th IEEE Conference on Decision and Control.
Vahushchenko, L.L., Tsymbal, N.N. (2007). Systemy avtomatycheskoho upravlenyia dvyzhenyem sudna. 3-e yzd., pererab. y dop. Odessa: Feniks. [in Russian].
Andreev, A.Y., Lvov, V.E. (2008). Analyz tochnosty pryntsypov kursovoho upravlenyia dvyzhenyem sudna. Avtomatyzatsyia sudovykh tekhnycheskykh sredstv: Sb. nauchn. trudov/ ONMA, Vyp. 14. Odessa: YzdatYnform, s. 3 – 7. [in Russian].
Siniuta, K.O. (2021). Iteratsiinyi metod stabilizatsii sudna na kursi ta marshruti. Sudnovodinnia: Zb. nauk. prats. NU «OMA». Vyp. 31. Odesa: «VydavInform», S.117-124. [in Ukrainian].
Clarke, D.W., Mohtadi, C., & Tuffs, P. (1987). Generalized predictive control. Part I: The basic algorithm Automatica. Vol. 23. N.Y., p. 137 – 148.
Podporyn, S.A. (2007). Intelligent control techniques applied to ship steering. Materily Mizhnarodnoi naukovo-tekhnichnoi konferentsii «Bezpeka moreplavannia ta yii zabezpechennia pry proektuvanni ta buduvanni suden (BMS) 2007». Mykolaiv: P. 21-23.
Chen W. Q., Chen J., Zhang W. (2016): Adaptive Neural Network Robust Tracking Control for Ship Course. Ship Engineering, 9, 15–20.
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