Simulation model of the communication repair process in the mechanized brigade repair unit
Abstract
The article analyzes the current state of information exchange in the control system of a mechanized brigade during its combat operations in the anti-terrorist operation, the operation of the combined forces of the Armed Forces of Ukraine in the east of the country. It is determined that the mechanized crew communication system has a low level of survivability. The cause is a large amount of communication damage due to enemy fire damage and limited technical reliability. Maintaining a given level of survivability of the communication system is possible primarily through the timely restoration of damaged communications.Existing models that can be used to determine the estimated number of recovered communications tools are analyzed. Strengths and weaknesses are identified and directions of improvement are formulated.A simulation model developed on a personal computer in the AnyLogic 7.0.2 Professional software environment, the process of repairing communications in the repair unit of a mechanized team, which, unlike existing ones, takes into account the intensity of communication failure due to enemy fire damage combat periods, as well as communication tools that fail due to limited technical reliability.The type of queuing system used to describe the recovery process of communications in the mechanized repair unit is justified. The algorithm of work of simulation model of process of communication means restoration in repair unit of mechanized crew is given.Let's calculate the number of recovered communications using a simulation model of the communication recovery process in a mechanized brigade repair unit using a hypothetical example. The dependence of the likelihood of communication services on the number of communication repair masters has been determined.
Downloads
References
DSTU B3265-95. “Communication is military. Terms and definitions”.
White Paper 2017. Armed Forces of Ukraine: Annual / MoD of Ukraine. Kyiv: Ministry of Defense of Ukraine, 2017. 113 p.
Klimovich O.K. Application of modern systems and complexes of communication and automation for the needs of the Armed Forces of Ukraine during the anti-terrorist operation. Communication, radio engineering, radar, acoustics and navigation. Kyiv, 2015. No. 2 (43). pp. 23-27.
Lavrut O.O., Klimovich M.L., Tarasyuk O.L. Status and prospects of the use of modern technologies and means of radio communication in the Armed Forces of Ukraine. Weapons systems and military equipment. 2017. №1 (49). P.42-49.
Masesov M.O., Bondarenko L.O., Yefanov O.I., Sadikova K.O. Evaluation of the survivability of hierarchical military telecommunications networks. Modern Information Technologies in the Sphere of Security and Defense. 2018. No. 1 (31). pp. 61–67.
Romashkova O.N., Dedova E. V. The survivability of wireless communication networks in emergency situations. Technologies. T-Comm. 2014. № 6. S. 40–43
Shuenkin V.O. The question of assessing the effectiveness of the system of command of troops (forces). Kyiv: Science and Defense, 2010. № 4. pp. 23-28.
Dodonov A.G., Lande D.V. The survivability of information systems: Kyiv: Naukova Dumka, 2011. 256 p.
Wentzel E.S. Research of operations. Moscow: Soviet Radio Publishers. 1972. 551p.
The effectiveness of military communication systems and methods of its evaluation. Bogovik AV, Ignatov VV / St. Petersburg: YOU. 2006.
Shuenkin V.O. The question of assessing the effectiveness of the system of command of troops (forces). Kyiv: Science and Defense, 2010. № 4. pp. 23-28.
Boev V.D. Computer simulation. Practical, course and graduate design tutorial in AnyLogic 7. St. Petersburg: Military Communications Academy, 2014. 432 p.
Pavlovsky O.V., Prediction of the magnitude of losses of weapons and military equipment during the operation. Systems of weapons and military equipment. 2015. № 4 (44). P. 116–118.
Bobrun O.V. The technique of determining the predicted sanitary and irreversible losses of personnel of the engineering forces of the Armed Forces of Ukraine has been improved. Modern information technologies in the field of security and defense № 1 (25). Kyiv. 2016, pp. 5-7.
Kozlov B.A., Ushakov I.A. Handbook of calculating the reliability of radio electronics and automation equipment. Moscow: Owl. Radio, 1975. 472 p.
Abstract views: 338 PDF Downloads: 264
Copyright (c) 2020 Alexander Ishchenko
This work is licensed under a Creative Commons Attribution 4.0 International License.
The authors agree with the following conditions:
1. Authors retain copyright and grant the journal right of first publication (Download agreement) with the work simultaneously licensed under a Creative Commons Attribution License that allows others to share the work with an acknowledgment of the work's authorship and initial publication in this journal.
2. Authors have the right to complete individual additional agreements for the non-exclusive spreading of the journal’s published version of the work (for example, to post work in the electronic repository of the institution or to publish it as part of a monograph), with the reference to the first publication of the work in this journal.
3. Journal’s politics allows and encourages the placement on the Internet (for example, in the repositories of institutions, personal websites, SSRN, ResearchGate, MPRA, SSOAR, etc.) manuscript of the work by the authors, before and during the process of viewing it by this journal, because it can lead to a productive research discussion and positively affect the efficiency and dynamics of citing the published work (see The Effect of Open Access).
