MATHEMATICAL COMBAT MODELS AS A MEANS OF IMPROVING THE PROFESSION-FOCUSED TEACHING OF MATHEMATICS IN MILITARY UNIVERSITIES

Authors

DOI:

https://doi.org/10.31110/fmo2024.v39i1-09

Keywords:

discrete-state and continuous-time Markov process, the Kolmogorov differential equations, the intensity, effective rate of fire, combat unit

Abstract

Formulation of the problem. The teaching of mathematical disciplines in higher military educational institutions is focused primarily on providing a tool for studying the exact sciences. At the same time, the possibilities of mathematics still need to be fully utilized in particular disciplines. In this situation, cadets and students often need more motivation to study this science. Therefore, it is important to show examples of its application in military affairs at the beginning of the study of higher mathematics. An example of such an application is the mathematical modeling of combat operations. Problems of this type help create a learning environment that helps increase cadets' motivation to study these disciplines and deepen their professional knowledge. There is a significant base of tasks of this type. Still, with the development of modern military technologies and the development of mathematics, this base needs to be updated and rethought.

Materials and methods. The study used a stochastic approach to study combat models: introduction of the states of the corresponding system, construction of a graph of transitions from one state to another with an indication of intensities, and writing the corresponding system of Kolmogorov differential equations.

Results. A detailed description of the solution of an example of a stochastic model of "poorly organized combat" is given for teaching certain sections of applied mathematics and supplementing the traditional teaching methodology with this material to increase the motivation to study mathematical disciplines by cadets and students of military universities. In the proposed example, the states of the system are considered, a graph is constructed, intensities are written out during the transition from one state to another, a system of Kolmogorov's differential equations is written out, the method of solving this system and the solutions themselves are indicated, and the final formulas for calculating the mathematical expectations of the final number of combat units of each side and the probability of victory of each side are given.

Conclusions. The paper presents a detailed description of the application of the stochastic approach to the construction of combat models. This example demonstrates the step-by-step implementation of this approach. It can be used in teaching "Probability Theory," "Markov's processes," "Mathematical Modeling, and Optimization of Research," etc., in higher education institutions.

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References

Bondarenko, Z.V. (2004). Jakisnyj analiz rozv'jazkiv system dyferencialjnykh rivnjanj jak zasib formuvannja dejakykh komponentiv profesijnoji kuljtury studentiv. [Qualitative analysis of solutions of systems of differential equations for the formulation of the actual components in the professional culture of students]. Visnyk Vinnytskoho politekhnichnoho instytutu – Herald of the Vinnytsia Polytechnic Institute, 1, 115-120. (in Ukrainian).

Bukatar, M.I., Drin, I. I., & Lavrenchuk, V.P. (2009). Z dosvidu vykladannja vyshhoji matematyky dlja studentiv ekonomichnykh specialjnostej [Practice of studying higher mathematics for students of economics specialties]. Metodolohiia vykladannia matematychnykh dystsyplin dlia nematematychnykh spetsialnostei u suchasnykh umovakh – Methodology for the study of mathematical disciplines for non-mathematical specialties among the savage minds, December 16-18. (pp. 39-41). SumDu. (in Ukrainian).

Kyriy, V.V., & Fastova, N.I. (2014). Prykladni zadachi modelyuvannya ekonomichnykh protsesiv [Applied problems of modeling economic processes]. KHNURE. (in Ukrainian).

Kozlakova, G.O., & Kovalyuk, T.V. (2009). Naukovo-metodychna pidtrymka rozvytku vyshhoji pryrodnycho-matematychnoji osvity v tekhnichnykh universytetakh [Scientific and methodological support for the development of higher natural and mathematical education in technical universities]. Metodolohiia vykladannia matematychnykh dystsyplin dlia nematematychnykh spetsialnostei u suchasnykh umovakh – Methodology for the study of mathematical disciplines for non-mathematical specialties among the savage minds, December 3-14. (p. 208). SumDu. (in Ukrainian).

Fursenko, O.K., & Chernovol, N.M. (2020). Lanchesterovsjki modeli boevyih deystviy [Lanchester models of combat operations]. Zbirnyk naukovykh prats Kharkivskoho natsionalnoho universytetu Povitrianykh Syl – Collection of Science Practitioners Kharkiv National Air Force University, 4(66), 85-91. https://doi.org/10.30748/zhups.2020.66.12. (in Ukrainian).

Khitryak, O., Sorokatiy, M., & Petruchenko, O. (2016). Dejaki zastosuvannja dyferencialjnykh rivnjanj v vijsjkovij spravi [Certain implementation of differential equations in military field]. Zbirnyk naukovykh prats Natsionalnoi akademii derzhavnoi prykordonnoi sluzhby Ukrainy, seriia: viiskovi ta tekhnichni nauky – Book of Science Works of the National Academy of State Bridging Service of Ukraine, Serie: in science and technology, 1 (67), 319-330. (in Ukrainian).

Hom'yuk, І.V. (2004). Pro formuvannja profesijnoji sprjamovanosti studentiv tekhnichnykh VNZ u procesi vyvchennja teoriji jmovirnostej [Formation of professional skills of students in technical higher education institutions during educational process of the probability theory]. Newsletter of the Vinnytsia Polytechnic University, No. 3, pp. 85-89. (in Ukrainian).

Chuev, V.Yu. (2011). Veroyatnostnaya model boya mnogochislennyih gruppirovok [Probabilistic model of battle of numerous groups]. MGTU im. N. E. Baumana, ser. «Yestestvennyye nauki» – MSTU im. N. E. Bauman, ser. "Natural Sciences", 223-232. (in Russian).

Chuev, V.Yu., Dubograi, I.V., & Dyakova, L.N. (2017), “Smeshannyie” veroyatnostnyie modeli dvustoronnih boevyih deystviy mnogochislennyih gruppirovok” [“Mixed” probabilistic models of bilateral military operations of numerous groups], Matematicheskoye modelirovaniye i chislennyye metody – Mathematical modeling and numerical methods, 1, 91-101. https://doi 10.18698/2309-3684-2017-1-91101 (in Russian).

Armstrong, M.J. (2004). A Stochastic Salvo Model For Naval Surface Combat. Sprott School of Business, Carleton University.

Armstrong, M.J. (2011). A verification study of the stochastic salvo combat model. Annals of Operations Research, 186(1), 23-38.

Armstrong, M.J. (2014). The salvo combat model with a sequential exchange of fire The Journal of the Operational Research Society, 65(10), 1593-1601.

Kearney, M. J., & Martin, R. J. (2019) On a stochastic version of Lanchester’s model of combat. Department of Mathematics, Imperial College London.

Kress, M. (2020). Lanchester Models for Irregular Warfare. Operations Research Department, Naval Postgraduate School, Monterey.

Thomas, W.L. (2000). The Stochastic Versus Deterministic Argument for Combat Simulations: Tales of When the Average Won't Do. Military Operations Research, 5(3), 9-28.

Vesa, K. (2015). A Combat Equation Derived from Stochastic Modeling of Attrition Data. Military Operations Research, 20(3), 49-69.

Published

28.02.2024

How to Cite

Fursenko, O., Chernovol, N., & Bobrytska, H. (2024). MATHEMATICAL COMBAT MODELS AS A MEANS OF IMPROVING THE PROFESSION-FOCUSED TEACHING OF MATHEMATICS IN MILITARY UNIVERSITIES. Physical and Mathematical Education, 39(1), 64-69. https://doi.org/10.31110/fmo2024.v39i1-09

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