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The subject matter of the article is the life cycle of a T-64B tank sample during the period from normal operation in a combat training group to resource consumption and carrying out average and capital repairs. The goal of the study is to develop a model of dependence of inter-repair service life of the T-64B tank sample on the machine operating conditions and, on its basis, a methodology for controlling the parameters of individual assemblies and systems of the tank sample during its life cycle. The tasks to be solved are: to analyze the results of statistical records of tank system failures and damages number and identify the predicates set affect the inter-repair service life of the machine depending on conditions of its tasks for the intended purposes; to create the regression equation for getting the unified analytical dependence of inter-repair service life of the T-64B tank sample in the period from normal operation in training and combat group to service life and overhaul; to investigate specific influence of reliability indices on the machine's service life. General scientific and special methods of scientific knowledge are used. The method of hierarchy analysis, mathematical apparatus of probability theory and multidimensional statistical analysis were used. The following results are obtained. A set of predicates influence the inter-repair service life of the machine depending on conditions of its tasks for the intended purposes fulfillment has been determined. A regression equation has been drawn up to obtain a unified analytical dependence of the overhaul life of a T-64B tank sample during the period from normal operation in a combat training group to the development of a resource and carrying out of intermediate and complete overhauls were drawn up. Engineering solutions have been proposed to implement a methodology for monitoring the parameters of individual units and systems of the tank sample during its life cycle, namely integrated real-time monitoring of oil condition and recording of engine operating hours under various load conditions. Conclusions. The space of features characterizes the conditions of the tank sample tasks for its intended purposes, includes service life, crew training, operation, seasonality of the unit’s performed tasks nature, machine operating time since the last service and range of the vehicle before the next overhaul. The analytical relationship between the individual factors determining the conditions under which the T-64B tank sample performs its tasks for the intended purposes and the machine's service life consumption as a dependent variable can be determined in the form of a regression equation. Differentiated control of the parameters of individual assembly units and systems of the tank sample plays a leading role in ensuring the combat readiness and efficiency of the use of aging samples of weapons, insures personnel against possible accidents and catastrophes, sudden failures.
Chornyy, M.V., Dolhov, R.V. and Budyanu, R.H (2009), “On-Site Armament Maintenance and Repair and Military Equipment Strategies“, Viyskovo-tekhnichnyy zbirnyk Lvivskoho instytutu Sukhoputnykh viysk, vol. 1, pp. 65-68.
Volokh, O.P. (2007), The technique of substantiation of rational values of the parameters of maintenance of machines of engineering armaments at their use on purpose, Ph.D. Thesis, Kamianets-Podilskyi, Ukraine
Lanetskiy, B.N., Luk'yanchuk, V.V. and Fomenko, D.V. (2009), “Justification of optimal maintenance and repair strategies for complex technical systems”, Systemy obrobky informatsiyi, no. 6 (80), KhUPS, pp. 72-78.
Grib, D.A., Lanetskiy, B.N., Luk'yanchuk, V.V. and Mykhydenko, V.P. (2010), “Operation and repair of the technical condition of armaments and military equipment of anti-aircraft missile forces: problematic issues and ways to solve them”, Systemy ozbroyennya i viysʹkova tekhnika, no 4 (24), pp. 27-31.
Smironov, N.N. and Itskevich, A.A. (1987), On-Site maintenance and repair of aircraft, Transport, Moscow, SU.
Hulyayev, A.V., Zubaryev, O.V., Kanishchev, V.V. and Kolodyazhnyy, V.B. (2016), “Improving the efficiency of the system of maintenance and repair of weapons and military equipment”, Ozbroyennya ta viysʹkova tekhnika, no. 2(10), pp. 43-48.
Gusev, Yu.K. and Kritskiy, V.K (1979), “The influence of the ergonomic factor on operational failures”, Voprosy oboronnoy tekhniki, no 84, vol. XX, available at: http://btvt.info/5library/vop_nadeznost_t_72_t_64.htm.
Goloshchapov, I.M. (1989), Ekspluatatsiya bronetankovogo vooruzheniya i tekhniki, Voyenizdat, Moscow, SU.
(1986), Obyekt 447A (437A). Tekhnicheskoye opisaniye i instruktsiya po ekspluatatsii, Kniga 2, Voyennoye izdatelstvo Ministerstva oborony SSSR, Moscow, SU.
Krutilin, A.G. (2005), “Implementation of targeted programs for the development of systems for the operation, repair and storage of weapons and military equipment of state aviation”, Voyennaya mysl, no. 8, pp. 15-17.
(1994), DSTU 2860-94. Reliability of equipment. Terms and definitions, State Standard of Ukraine, Kyiv, UA.
Zubarev, V.V., Kovtunenko, A.P. and, Raskyn, L.H. (2005), Mathematical methods for assessing and predicting technical indicators of the operational properties of radio-technical systems, NAU, Kyiv, UA.
Korn, G.A. and Korn T.M. (1973), Mathematical handbook, Nauka, Fizmatgiz, Moscow, SU.
Demydenko, E.Z. (1981), Lineynaya i nelineynaya regressiya, Finansy i statistika, Moscow, SU.
Buslenko, N.P. (1968), Modelirovaniye slozhnykh system, Nauka, Moscow, SU.
Makogon, Ye. A. amd Seraya, O.V. (2007), “Evaluation of the effectiveness of complex systems using the modified method of pairwise comparisons”, Zbirnyk naukovykh pratsʹ Kharkivsʹkoho universytetu Povitryanykh Syl, no. 3(15), pp. 112-116.
Venttsel, Ye.S. (1969), Teoriya veroyatnostey [Probability Theory], Nauka, Fizmatgiz, Moscow, SU.
(2020), SDU-1A-0.12 boundary support signaling device, available at: https://izi.ua/p-10794116-signalizatory-davleniya-sdu1a-0-12-i-dr.
(2020), Microcontroller Arduino: characteristics, capabilities, available at: https://arduinoplus.ru/avtomatika-na-baze-mikrokontrollera-arduino/.