Tula State University, Tula, Russia:

S. A. Vasin, Professor, chair for Urban Development, Architecture and Design, Doctor of Technical Sciences, e-mail: vasin_sa53@mail.ru
A. V. Evseev, Associate Professor, chair for Technological Systems of Food, Printing and Packaging Industry, Candidate of Technical Sciences, Doctoral Candidate, e-mail: ews1972@mail.ru
A. A. Malikov, Vice-Rector, Head of the Chair for Mechanical Technical Technology, Doctor of Technical Sciences, e-mail: andrej-malikov@yandex.ru

The production of composite materials is a high-tech process that has become widespread in many industries in recent decades. The share of products using composite components is steadily growing both in Russia and abroad. Many scientific and technical studies of scientists and engineers around the world are devoted to the development and creation of new composite materials. The scientific, technical and technological features of using the provisions of the theory of ordered arrangement of microdoses of heterogeneous media components for experimental confirmation of scientific research data and practical implementation to obtain new and modified composite materials for various purposes and uses, including those with metal fillers and modifying additives, are presented. The main lines of scientific and technical developments on this topic are: mathematical substantiation of the formation of ordered structures of composite mixtures and verification of the obtained scientific and practical results, the creation and experimental study of new pilot stands, devices and machines for production and use of composite materials with new properties from heterogeneous materials as key components, methodological support and development of technological complexes for production of new composite materials with unique properties. The aim of the research is to develop modern technological complexes, as well as schemes and modes of their operation for production of composite mixtures and materials in the required volume with a deterministic formation of their homogeneity and optimization of the formulation for functionally justified provision of the maximum effect of using these composites with the introduction of various modifying components, including metal, which are both solid and liquid media.

1. Makarov Yu. I. Apparatus for mixing bulk materials. Moscow: Mashinostroenie, 1973. 216 p.
2. Evseev А. V. Theory and equipment for deterministic formation of homogeneity of heterogeneous mixtures: Dissertation … of Doctor of Technical Sciences. Tula, 2021. 297 p.
3. Dedov А. G., Shlyakhtin О. А., Loktev А. S., Mazo G. N. et. al. New metal-oxide composite materials as efficient catalysts for oxygen reforming of methane. Doklady Akademii nauk. 2019. Vol. 484, No. 3. pp. 299–302.
4. Galyshev S. N., Gomzin A. I. Composite material with aluminum matrix and carbon fiber and method for its production. Patent RF, No. 2759840. Published: 18.11.2021.
5. Pozdnyakov A. V., Mostafa A.A., Issam A. M., Churyumov A. Yu. Composite material based on aluminium boron carbide - reinforced alloy and method of its production. Patent RF, No. 2639088. Published: 19.12.2017.
6. Loutfy K., Hirotsuru H. Advanced diamond metal matrix composites for thermal management of RF devices. Wamicon 2011 Conference Proceedings. April 2011.
7. Vasin S. А., Evseev А. V. Some aspects of creating new designs of conveyor and rotary non-mixers. Vestnik RGUPS. 2021. No. 2. pp. 32–43.
8. Evseev А. V. Method of producing mixture from loose components and device for its implementation. Patent RF, No. 2707998. Published: 03.12.2019.
9. Evseev А. V. Rotary feeder for granular material. Patent RF, No. 2708780. Published: 11.12.2019.
10. Vasin S. A., Vasin L. A., Mishunina G. E., Borodkin N. N. Method of preparing molded raw materials mixtures. Patent RF, No. 2013408. Published: 22.07.2006.
11. Allakhverdieva Kh. V. Physical and mechanical properties of composite materials based on copper and polyolefins. Izvestiya vysshikh uchebnykh zavedeniy. Seriya “Khimiya i khmicheskaya tekhnologiya”. 2020. Vol. 63, No. 10. pp. 71–77.
12. Singh J., Chauhan A. Overview of wear performance of aluminium matrix composites reinforced with ceramic materials under the inuence of controllable variables. Ceramics International. 2016. Vol. 42. pp. 56–81.
13. Evseev А. V., Paramonova М. S., Preis V. V., Lobanov А. V. Experimental validation of the mathematical model of deterministic formation of mixture for producing diamond tools. Tsvetnye Metally. 2019. No. 1. pp. 78–87.
14. Vasin S. А. Tool vibration prediction in turning and milling. Moscow: Mashinostroenie, 2006. 383 p.
15. Vasin S. A., Vasin L. A., Borodkin N. N. Systematic assessment of the dynamic properties of composites for the manufacture of holders for lathes. Moscow: Mashinostroenie, 2008. 275 p.