OPTIMIZATION OF COMBAT APPLICATION MODES AND DESIGN PARAMETERS OF AIR-TO-SURFACE CORRECTED WEAPONS
- Authors
-
-
-
-
Mykola Arhipov
Research and Production Firm «ADRON»
-
- Keywords:
- Array, Array, Array, Array, Array
- Abstract
-
This article is a continuation of the previously published material on the construction of a methodological apparatus for the calculation and construction of the optimum trajectory for the bomb dropped by a flying vehicle in a coast-to-coast flight. This article deals with the selection of a flight mode that ensures the maximum range of the bomb dropped by the unmanned aerial vehicle. bombing is one of the widespread methods of attack aviation combat use.
However, there are contradictions in its use. On the one hand, for the bomb to hit the target precisely, it must be dropped at close range to the target, if possible. In this case, the nose is in a non-hazardous area of the enemy's anti-aircraft defenses. Therefore, in order to reduce the probability of nose-to-target exposure, the bomb drop range from the target should be as long as possible.
A simplified (more readily available) methodology has been proposed to evaluate the bomb's upper range parameters using the previously derived maximum range figure as a function of the energy range.
A simple methodology is suggested for rapid assessment of the drop point and range of the bomb, which can be implemented on a standard personal computer without the use of highly qualified specialists.
The main attention is focused on analysis of the low-end track section. Recommendations are given for selection of attack course, speed and speed of approach course of trajectory at initial planning area and their further implementation in the process of poling. The methodology for the calculation of the aerodynamic characteristics of a serial bomb when it is fitted with an additional load-bearing surface is presented.
Attention is also paid to the peculiarities of calculating the maximum range of the bomb, taking into account the change in acceleration caused by changes in air density in height, the value of the range by braking the bomb.
An algorithm for calculating the parameters of bomb reduction has been developed, which allows for an operational analysis of the impact of geometric, aerodynamic and operational parameters on its efficiency.
For approbation of theoretical material the example of calculation of indicators of the sample close to serial bomb FAB-250 is given.
- Author Biographies
- References
-
Ильин В. Боевые самолеты зарубежных стран 21 века. М.: АСТ. 2001. 338 с.
Опыт боевого применения российских беспилотных ЛА в Сирии. [Електронний ресурс]. − Режим доступу: https://bmpd.livejournal.com/2587680.html.
Кушнір С.В., Сілков B.І., Зірка А.Л., Кравчук І.С. Удосконалення бомбометання з кабрирування як засіб підвищення ефективності бойового застосування ударного літального апарату. Озброєння та військова техніка. Київ: ЦНДІ ОВТ ЗС України. 2021. № 3(31). С. 44—50. DOI: https://doi.org/10.34169/2414-0651.2020.1(25).72-79
Силков В.И. Динамика полета и боевого маневрирования летательных аппаратов. Киев: КВВАИУ. 1984. 318 с.
Cілков В.І. Бойове маневрування літальних апаратів. Київ: НАОУ. 2004. 338 с.
Бронштейн И.Н. Справочник по математике.1957. 608 с.
Боевое применение и эффективность комплексов авиационного вооружения. М.: ВВИА им. Жуковского. 1992. 236 с.
Котельников Г.Н., Сілков В.І., Мамлюк О.В., Терещенко Ю.М. Аеродинаміка літальних апаратів. Київ: Вища освіта. 2002. 354 с.
Котик М.Г., Павлов А.В., Пашковский И.М., Сардановский Ю.С., Щитаев Н.Г. Летные испытания самолетов. М.: Машиностроение. 1965. 380 с.
Кравчук І.С., Тараненко В.В. Реалізація пропорційного самонаведення коректованої авіаційної бомби за інформацією супутникової системи навігації. Наука і техніка Повітряних Сил Збройних Сил України. 2019. № 3(36). С. 73—78. DOI: https://doi.org/10.30748/nitps.2019.36.08
Кириллов В.И. Бомбометание. М.: Воениздат МО СССР. 1960. 375 с.
Блок аэродинамического управления Адрос БАУ-01КТ. Рекламный проспект Научно-производственной фирмы «Адрон». [Електронний ресурс]. − Режим доступу: www.adron.ua.
Чумак П.И, Кривокрысенко В.Ф. Расчет, проектирование и постройка сверхлегких самолетов. М.: Патриот. 1991. С. 238.
Сілков В.І. Літаюча модель замість аеродинамічної труби. Озброєння та військова техніка. Київ: ЦНДІ ОВТ ЗСУ. 2020. № 4(28). С. 66—74. DOI: https://doi.org/10.34169/2414-0651.2020.4(28).66-74
Руководство для конструкторов летательных аппаратов самодельной постройки. Т.1. СибНИА им. С.А. Чаплыгина. Новосибирск. 1994. С. 246.
Бонч-Бруевич Г.Ф. Аэродинамические характеристики самолетов и их расчет. Киев: КВВАИУ. 1977. С. 96.
Определение аэродинамических характеристик моделей в широком диапазоне чисел М и углов атаки в сверхзвуковой трубе Т-6 ХАИ: Отчет об опытно-конструкторской работе.
- Downloads
- Published
- 2022-06-30
- Section
- AIRCRAFT ARMAMENT & FACILITIES
- License
-
Copyright (c) 2022 Валерій Сілков ,Андрій Зірка ,Микола Архіпов

This work is licensed under a Creative Commons Attribution 4.0 International License.
How to Cite
Most read articles by the same author(s)
- M. M. Nikitin, Danil Belyaev, Andrii Zirka, Rimma Semenyuk, Vladyslav Tiutiunnyk, Gennadii Kamaltynov, Analysis of trends and forecasts of development of military radar for air target detection for the medium-term , Weapons and military equipment: Vol. 31 No. 3 (2021): Weapons and military equipment
- Valerii Silkov, Andrii Zirka , Methods of assessing the aerodynamic characteristics of gliding munitions based on the results of their wreckage examination , Weapons and military equipment: Vol. 44 No. 4 (2024): Weapons and military equipment
- Valerii Silkov , Andrii Zirka, Kyryl Torkhov, Mikhail Burtyn, Method for aerodynamic and flight-tactical parametr definition of guided aviation bomb in flight experiment , Weapons and military equipment: Vol. 49 No. 1 (2026): Weapons and military equipment
- Y. M. Nykolaev, Sergey Kushnir, N. M. Kaliuzhnyi , Valerii Silkov, A. V. Khriapkyn , Andrii Zirka, Ilya Kravchuk, Improvement of bombardment with cabining as a way to increase the effectiveness of combat application of the aircraft for striking purposes , Weapons and military equipment: Vol. 31 No. 3 (2021): Weapons and military equipment
- Andrii Zirka, To the definition of classifications of unmanned aerial vehicle strike systems , Weapons and military equipment: Vol. 32 No. 4 (2021): Weapons and military equipment
- Andrii Zirka, Oleksandr Rasstrygin, MATHEMATICAL MODEL OF THE MOVEMENT OF THE DYNAMIC SYSTEM OF A MANNED AIRCRAFT − UAV IN THE SIDE CHANNEL WHEN FLIGHTS IN DENSE COMBAT FORMATIONS , Weapons and military equipment: Vol. 43 No. 3 (2024): Weapons and military equipment
- Valerii Silkov, Мichael Мітrakhovich, Andrii Zirka, . Methodology for calculating the flight range of a bomb equipped with wings , Weapons and military equipment: Vol. 45 No. 1 (2025): Weapons and military equipment
- Andrii Zirka, Vadim Kozlov , ASSESSMENT OF THE COMBAT CAPABILITIES OF TACTICAL AVIATION AIRCRAFT OF THE RUSSIAN FEDERATION IN THE WAR WITH UKRAINE , Weapons and military equipment: Vol. 33 No. 1 (2022): Weapons and military equipment
- Мichael Мітrakhovich , Valerii Silkov, Andrii Zirka, DETERMINATION OF ALTITUDE-SPEED CHARACTERISTICS OF A TURBOJET ENGINE FROM DATA FROM BENCH TESTS , Weapons and military equipment: Vol. 46 No. 2 (2025): Weapons and military equipment
- Andrii Zirka, Oleksandr Rasstrygin, SCIENTIFIC AND METHODOLOGICAL APPARATUS FOR RATIONALIZING THE REQUIREMENTS TO THE MOTION PARAMETERS OF THE DYNAMIC SYSTEM OF MANNED AIRCRAFT − UAV IN FLIGHTS IN DENSE BATTLE ORDERS , Weapons and military equipment: Vol. 38 No. 2 (2023): Weapons and military equipment
