Control Systems and Computers, N4, 2017, Article 10

DOI: https://doi.org/10.15407/usim.2017.04.083

Upr. sist. maš., 2018, Issue 4 (270), pp. 83-91.

UDC 656.7.084

Pavlova S.V., Doctor of Sc (Eng.), associate professor, senior research fellow, Department of intelligent control, Phone: +38 (044) 406-72-44, E-mail: psv@nau.edu.ua,

Volkov O.Ye., Research fellow,  E-mail: alexvolk@ukr.net,

Department of intelligent control, International Research and Training Center for Information Technologies and Systems of NAS of Ukraine and MES of Ukraine, Address: 40, Glushkova ave., Kyiv, 03187, Ukraine

The Conflict Interaction of Airships in Collision Prevention Threats

Purpose: The proposed work is devoted to a new method for resolving conflict situations of aircraft with the prioritization of each aircraft based on the construction of control areas and Venn diagrams. This method is aimed at providing a guaranteed level of security in the resolution of depleted conflict situations of aircraft in real time.
Methods: The proposed technology is based on a new method for resolving aircraft conflicts using Venn diagrams and determining the areas of control of each aircraft.
Results: The introduction of a new technology to resolve aircraft conflicts in real time and the implementation of appropriate algorithms of such technology will ensure an effective increase in the level of safety of flights.
Discussion: The new technology proposes a method for determining the areas of controllability of aircraft, which characterize the capabilities of the aircraft to change the parameters of motion at a single time and allow us to characterize the nonlinearity of the behavior of the aircraft. For the universality of the proposed method, the developed rules for the divergence of the aircraft in a dynamic conflict situation are proposed. The rules for clarity are constructed according to the pattern of Venn diagrams.

Keywords: Area of control, Conflict situation, Venn diagrams, aircraft, threat of collision.

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  1. Krozel, J., Peters, M., 2000. Decentralized control techniques for distributed air/ground traffic separation, Los Gatos: Seagull Technology Inc., 2000, 104 p.
  2. Vojnich, B., Pozdnjakova, O., Sosnivskij A. et al., Predotvrashhenie stolknovenij vozdushnyh sudov. Avtonomnaja mikrojelektronnaja radiolokacionnaja sistema, M.: Jelektronika, 2000, 369 p. (In Russian).
  3. Chikrij, A.A., Rappoport, I.S., 2012. “Metod razreshajushhih funkcij v teorii konfliktno-upravljaemyh processov”, Kibernetika i sistemnyj analiz, 4, pp. 40–64. (In Russian).
  4. Kharchenko, V.P., Argunov, G.F., Zakora S.A. et. al., 2011. Riski stolknovenija i jeshelonirovanie vozdushnyh korablej. K.: NAU, 326 p. (In Russian).
  5. Zakora, S.A., 2005. “Analiz metodov reshenija konfliktnyh situacij v uslovijah svobodnogo poleta”, Proceedings of the National Aviation University, 1, pp. 42–74. (In Russian).
  6. Krasovskij, N.N., 1970. Igrovye zadachi o vstreche dvizhenij, M.: Nauka, 424 p. (In Russian).
  7. Pavlov, V.V., Volkov, A.E. Sposob preduprezhdenija stolknovenij dvizhushhihsja ob#ektov v dinamicheskom konflikte v masshtabe real’nogo vremeni: patent Ukrainy № 106765, MPK G05V 1/00; G05B 15/00; G05B 17/00; G06F 9/00; G06N 7/00; G08G 5/00, N 201510017; zajavl. 13.10.2015; opubl. 10.05.2016, Bjul. n 9. (In Russian).
  8. Pavlova S.V., Volkov A.E., 2017. “System of guaranteed resolution of dynamic conflicts of aircrafts in real time”, Proceedings of the National Aviation University, 1, pp. 29–35.

Received 07.08.2017