Preview

Mekhatronika, Avtomatizatsiya, Upravlenie

Advanced search

Synthesis of a Control System for Planning a Rocket Projectile on a Passive Flight Section along a Program-Defined Trajectory

https://doi.org/10.17587/mau.23.536-545

Abstract

The article solves a problem aimed at creating a control system for the planning of a rocket projectile. The existing method of calculating the missile range does not provide the necessary accuracy. The use of computer simulation methods is the most promising approach for the development of a rocket planning control system based on laws. The proposed control system is based on the use of a reference trajectory of the rocket flight calculated for the predicted average values of the velocity of the longitudinal component of the wind. An algorithm for controlling the planning of a rocket by changing the angle of rotation of a horizontal support is proposed, based on the dependence of vertical and horizontal coordinates and on the pitch angle. The computer system of visual programming Simulink was used as a platform for the development of the algorithm. As a result, a block diagram of the rocket planning control was obtained, including a model of the rocket flight path as a control object and an on-board control system organized on the basis of a dual-core ESP-32 microcontroller. The technique of wireless recording of the control program into the memory of the microcontroller in the field is proposed. Based on the Simulink Desktop software package, a half-scale rocket flight model was developed in real time, including an ESP-32 microcontroller, a PCI-1710HG board and a Simulink rocket flight trajectory model with a variable mass in the vertical plane. A series of experiments were conducted that showed a high degree of accuracy of the missile hitting the target because of the projectile planning control system.

About the Authors

T. B. Atygayev
Non-profi t limited company "Manash Kozybayev North Kazakhstan university"
Kazakhstan

 Atygayev Talgat B., Postgraduate Student

Petropavlovsk, 150000 

 



V. P. Ivel
Non-profi t limited company "Manash Kozybayev North Kazakhstan university"
Kazakhstan

Dr. Sc. Tech., Professor

Petropavlovsk, 150000 



Y. V. Gerasimova
Non-profi t limited company "Manash Kozybayev North Kazakhstan university"
Kazakhstan

  PhD, Associate Professor 

Petropavlovsk, 150000 



References

1. Multiple launch rocket system Military Encyclopedic Dictionary. Pred. Gl. red. komissii: S. F. Ahromeev, Мoscow,Voenizdat, 1986, pp. 625—626 (in Russian).

2. Gursky B. G., Lyushchanov N. A., Spirin E. P. et al. Fundamentals of the theory of control systems for high-precision missile systems, Мoscow, BMSTU, 2002, pp. 240—244 (in Russian).

3. Lahti J. Control of exterior ballistic properties of spinstabilized bullet by optimizing internal mass distribution, Defence Technology, 2019, no. 15, pp. 38—50.

4. Sun H. The control of asymmetric rolling missiles based on improved trajectory linearization control method, Journal of Aerospace Technology and Management, 2016, no 8 (3), pp. 319—327.

5. Lei X. Y. Analysis of an improved trajectory correction scheme based on mass blocks, Journal of Systems Engineering and Electronics, 2019, no. 30 (1), pp. 180—190.

6. Lutmanov S. V., Gorodilov A. D. The problem of targeting a jet projectile in a homogeneous field of gravity taking into account air resistance, Problems of Mechanics and Control: Nonlinear Dynamic Systems, 2020, pp. 11—29 (in Russian).

7. Kuznetsov N. S. Method for correcting the trajectory of missiles of multiple launch rocket systems, Russian Patent No. 0002678922, 2019, https://edrid.ru/rid/219.016.b7e0.html (in Russian).

8. Korolev S. A., Lipanov A. M., Rusyak I. G. The study of ways to increase the range of barrel artillery shooting, Bulletin of IzhGTU named after M. T. Kalashnikov, 2018, no. 3 (21), pp. 185—191 (in Russian).

9. Znamensky E. A., Carth B. E., Nabokov Yu. A. Generalized mathematical model of the spatial motion of artillery ammunition, Fundamental Bases of Ballistic Design. Ser. Library of the journal “VOENMEKH. Vestnik BSTU", 2017, pp. 11—14 (in Russian).

10. Korolev S. A. Methodology of simulation modeling of projectile dispersion, Intelligent Systems in Production, 2019, no. 1 (17), pp. 57—62 (in Russian).

11. Rusyak I., Sufiyanov V., Korolev S., Ermolaev M. Software complex for simulation of internal and external ballistics of artillery shot, International Conference on Military Technologies, University of Defense, 2015, pp. 9—17.

12. Kuznetsov N. S. Some Prospective Areas of Work in JSC "NLP "Delta", Scientific and Technical Collection of State Scientific Center of the Russian Federation FSUE “D. I. Mendeleev CRIA”, 2014, pp. 9—11 (in Russian).

13. Dmitrievsky A. A., Lysenko L. N. External ballistics textbook for universities, Moscow, Machine Building, 2005, pp. 543—544 (in Russian).

14. Babichev V. V., Vetrov V. P. Ways to increase the ballistic efficiency of artillery guided missiles, Izvestiya RARAN, 2010, no. 3 (65), pp. 3—9 (in Russian).

15. Dmitrievskii A. A., Lysenko L. N. External ballistics textbook for universities, Moscow, Maşinostroenie, 2005, pp. 120—121 (in Russian).

16. Andreychenko D. K., Andreychenko K. P. To the theory of autonomous systems of angular stabilization of multiple-launch rockets, Izvestiya RAN. Theory and Control Systems, 2009, no. 3, pp. 141—156 (in Russian).

17. Atygayev T., Ivel V., Gerasimova Y. Development of a hardware and software model of a rocket motion correction system, Eastern-European Journal of Enterprise Technologies, 2021, no. 3 (111), pp. 15—23.

18. Gaiduk A. R., Plaksienko E. A. Adaptive control systems: textbook, Taganrog, SFU Publishing House, 2018, pp. 105—110 (in Russian).


Review

For citations:


Atygayev T.B., Ivel V.P., Gerasimova Y.V. Synthesis of a Control System for Planning a Rocket Projectile on a Passive Flight Section along a Program-Defined Trajectory. Mekhatronika, Avtomatizatsiya, Upravlenie. 2022;23(10):536-545. (In Russ.) https://doi.org/10.17587/mau.23.536-545

Views: 353


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


ISSN 1684-6427 (Print)
ISSN 2619-1253 (Online)