Improvement of bombardment with cabining as a way to increase the effectiveness of combat application of the aircraft for striking purposes

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Abstract

The article deals with a methodical apparatus for calculating and constructing the optimal flight trajectory of a bomb when it is dropped by an aircraft during a flight with cabriolet. Optimization is based on the maximum horizontal range of the bomb after dropping. The use of this approach for the practical implementation of a bomb in an optimised trajectory allows the aircraft (carrier) to perform the entire flight and bombing at a low (extremely low) altitude. At the same time, the range of the aircraft from the target now of bombardment has been considerably increased, which altogether allows to significantly reduce the probability of its exposure to enemy anti-aircraft defense equipment. Based on this task, a ratio of bomb range to energy altitude is formed and a search for its extreme value is carried out. This enables the maximum bomb range to be achieved after the bomb has been dropped from the aircraft (carrier). It is substantiated and calculated that the derivative of the distance in energy height is practically an important characteristic. It shows how far a bomb can fly when consuming one meter of energy height. In the absence of an engine (accelerator) on the bomb, this derivative is negative in sign. This indicates that the total energy of the bomb changes over time, regardless of what maneuver it performs acceleration, braking, gaining height or descent. To test the efficiency of the method, the flight trajectory of the bomb was simulated, the geometric, mass and aerodynamic characteristics of which are close to the current serial sample. The comparison of both results indicates the adequacy of the proposed methodological apparatus.
The proposed methodological apparatus allows to determine the optimal conditions for the bombing of the calibration and to assess the impact of design and operational parameters on the range of the bomb.

Author Biographies
  1. Y. M. Nykolaev, Kharkov university of the air force named after Ivan Kozhedub

    Candidate of Sciences
    Senior Research
    Senior Research Associate worker of scientific center of Aircrafts

  2. Sergey Kushnir, Air Force Command of the Armed Forces of Ukraine

    Chief Navigator - Chief of the Navigation Department of Aviation of the Air Force Command of the Armed  Forces of Ukraine, Vinnytsia, Ukraine

  3. N. M. Kaliuzhnyi , Kharkiv National University of Radio Electronics

    PhD
    Senior Scientist
    Head of the problem research laboratory
    senior Lecturer of the Department of INE

  4. Valerii Silkov, Central Scientific Research Institute of Armament and Military Equipment of the Armed Forces of Ukraine

    PhD, Leading Researcher of Research DevelopmentDepartment of aviation-space systems (complex), research management of Armament an Military Equipment of the Air Force of Central Research Institute  of Armament and Military Equipmen Armed Forces of Ukraine,
    Kyiv, of Ukraine

  5. A. V. Khriapkyn , Kharkiv National University of Radio Electronics

    Candidate of Technical Sciences
    Associate Professor of System Engineering Department

  6. Andrii Zirka, Central Scientific Research Institute of Armament and Military Equipment of the Armed Forces of Ukraine

    PhD, Chief of Research Department of the Central Research Institute of Armament and Military Equipment of Armed Forces of Ukraine, Kyiv, Ukraine

  7. Ilya Kravchuk, Research and Production Firm ADRON

    Ph.D., Associate Professor (Research and Production Firm ADRON, Kyiv, Ukraine

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Published
2022-02-01
Section
MILITARY AIRCRAFTS
License
Creative Commons License

This work is licensed under a Creative Commons Attribution 4.0 International License.

How to Cite

Improvement of bombardment with cabining as a way to increase the effectiveness of combat application of the aircraft for striking purposes. (2022). Weapons and Military Equipment, 31(3), 44-50. https://doi.org/10.34169/2414-0651.2021.3(31).44-50

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