. Methodology for calculating the flight range of a bomb equipped with wings
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- Abstract
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The article presents a methodology for calculating the maximum flight range of a bomb equipped with wings and a turbojet engine. Working formulas are derived for calculating the bomb's flight range, taking into account the improvement of its aerodynamic efficiency due to the addition of a gliding module and the installation of a cruise engine.
A methodology is proposed for determining the main aerodynamic characteristics of a gliding bomb and constructing its polar diagram based on the results of a flight experiment with a model. An assessment is made of the impact of engine thrust on the bomb's flight range. It is shown that installing an engine reduces the gliding trajectory angle of the bomb by a value proportional to the ratio of thrust to the bomb’s weight. Calculation dependencies are proposed to determine the optimal moment for starting the cruise engine after the bomb is released from the carrier.
Using the energy method, it is proven that the lowest fuel consumption for obtaining the same thrust impulse is achieved when the engine is started at the initial phase of the flight, while the bomb's gliding for maximum range should be performed at the most advantageous indicated airspeed. The conditions for achieving the maximum flight range of the bomb are determined. Calculation dependencies are provided for determining the maximum range, taking into account all phases of the bomb’s flight.
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- References
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korehovanykh zasobiv urazhennia klasu povitria − poverkhniaˮ [Optimization of modes of combat use and design parameters of aviation corrected air-to-surface means of attack], Ozbroiennia ta viiskova tekhnika. K.: TsNDI OVT ZS Ukrainy. № 2(34). Pp. 88—99. https://doi.org/1034169/2414-0651.2022.2(34).88-99.
Zirka, A.L. (2023). “Metodyka otsinky znachen osnovnykh parametriv bombometannia z kabryruvannia dlia zabezpechennia realizatsii zadanoi dalnosti polotu bomby na osnovi energetychnogo pidkhoduˮ [Methodology for estimating the values of the main parameters of bomb-throwing from cabration to ensure the implementation of the given bomb flight range based on the energy approach], Ozbroiennia ta viiskova tekhnika. K.: TsNDI OVT ZS Ukrainy. № 1(37). Pp. 40—45. https://doi.org/1034169/2414-0651.2023.1(37).40-45.
Kotelnykov, H.N., Silkov, V.I., Mamliuk, O.V. & Tereshchenko, Yu.M. (2002), “Aerodynamika litalnykh aparativˮ [Aerodynamics of aircraft]. K.: Vyshcha osvita. P. 354.
Silkov, V.I. (2004). “Boiove manevruvannia litalnykh aparativˮ [Combat maneuvering of aircraft]. K.: NAOU. 338 p.
“Teoriia teplovykh dvyguniv: pidruchnykˮ [Theory of Heat Engines: Textbook] / [Tereshchenko Yu.M., Boyko L.H., Dmytriiev S.O. et al.]; edited by Yu.M. Tereshchenko. K.: Vyshcha Shkola. 2001. 382 p.
Vorobyov, V.G. & Kuznetsov, S.V. (1995). “Avtomaticheskoe upravlenie poletom samoletovˮ [Automatic Flight Control of Aircraft]. M.: Transport. 359 p.
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- 2025-03-31
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- AIRCRAFT ARMAMENT & FACILITIES
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Copyright (c) 2025 Валерій Сілков ,Михайло Мітрахович ,Андрій Зірка

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