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Robotic training complex

https://doi.org/10.21122/2309-4923-2025-1-69-73

Abstract

The article considers aspects of creating a robotic training complex for teaching, based on the "bottom-up" principle, methods of designing, programming and modeling industrial manipulators with five degrees of freedom based on modern microcontrollers. The main goal of the development is to increase the efficiency of the design process of robotic complexes, import substitution. It is proposed to solve the following problems: development of a robotic training complex (hereinafter RTС), its simulation and mathematical model; identification and optimization of the model; development of an electrical circuit diagram of the RTС; creation of a simulation model of the manipulator; development of a training and methodological complex for training personnel in the basics of designing and programming industrial manipulators with equipment for production tasks of varying complexity. As an example for assessing the performance of the proposed complex, a model of the electrical part of the RTС, built in the Proteus8Professional programming environment, is considered. Illustrations of a prototype of the complex are presented.

About the Author

Yu. N. Matrunchyk
Belarusian National Technical University
Belarus

Matrunchyk Yu.N., senior lecturer of the Department of Robotic Systems

Minsk



References

1. Polytechnic terminological explanatory dictionary / Compiled by: V. Butakov, I. Fagradyants. – M.: Polyglossum, 2014. – 526 p.

2. Flexible manufacturing systems, industrial robots, robotic complexes: Practical. manual. In 14 books. Book 6. B. I. Cherpakov, V. B. Velikov, etc. Robotic complexes / Ed. by B. I. Cherpakov. – M.: Higher. school, 1989. – 95 p.

3. WIPO World Intellectual Property Organization [Electronic resource]. – Electronic data. Access mode: https://www. wipo.int/ru/web/global-innovation-index/w/blogs/2024/robotics-industry.

4. Innovative technologies, automation and mechatronics in mechanical engineering and instrument engineering: Proceedings of the XI International Scientific and Practical Conference, Minsk, April 5, 2023 / Belarusian National Technical University; editorial board: A. R. Okolov [et al.]. – Minsk: BNTU, 2023. – 166 p.

5. Proteus. Integrated environment for developing electronic devices, including microcontrollers [Electronic resource]. – Access mode: http://www.gaw.ru/html.cgi/txt/soft/avr/Proteus.htm – Access date: 02/20/2025.

6. Zenkevich, S. L., Yushchenko A. S. Fundamentals of control of manipulation robots. 2nd ed. M .: Publishing house of Moscow State Technical University. N. E. Bauman, 2014. – 480 p.

7. Tyagunov, O. A. Mathematical models and control algorithms for industrial transport robots // Information, measuring and control systems. – 2013. – Vol. 5, No. 5. – P. 69.

8. Fu, K., Gonzalez R., Lee K. Robotics / Translated from English. – Moscow: Mir, 1989. – 624 p.

9. Shahinpour, M. Course in robotics / Translated from English. – Moscow: Mir, 1990. – 527 p.

10. P. Corke Robotics. Version and Control: Fundamental Algorithms in MATLAB / P.Corke. – Springer, 2011. – 570 p.


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For citations:


Matrunchyk Yu.N. Robotic training complex. «System analysis and applied information science». 2025;(1):69-73. (In Russ.) https://doi.org/10.21122/2309-4923-2025-1-69-73

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ISSN 2309-4923 (Print)
ISSN 2414-0481 (Online)