1. Panov, Y. T., Chizhova, L. A., & Ermolaeva, E. V. (2014). Modern Methods of Processing Polymer Materials. Processing of Thermosetting Plastics: Textbook. Vladimir: Vladimir State University Press, 144 p. 2. Kosimov, U. D., Malysheva, G. V., & Novikov, A. D. (2024). Study of the Effect of Infrared Heating Unit Power on the Kinetics of the Curing Process of Fiberglass Parts Based on Epoxy Matrix. Railway Transport: Current Challenges and Innovations, (4), 192-196. 3. Galygin, V. E., Baronin, G. S., Tarov, V. P., & Zavrazhin, D. O. (2012). Modern Technologies for the Production and Processing of Polymer and Composite Materials: Textbook. Tambov: Tambov State Technical University Press, 180 p.

4. A. M. Dumanskii and Kh. Lyu, “Prediction and calculation of anisotropy of mechanical properties of unidirectional carbon fiber reinforced plastic under highspeed loading,” Inzh. Zh.: Nauka Innovatsii, No. 1, 3–10 (2020). 5. Kulik, V. I., & Nilov, A. S. (2019). Binders for Polymer Composite Materials: Textbook. Saint Petersburg: BSTU Publishing House, 52 p. 6. Urazbakhtin, F. A., Kharinova, Y. Y., & Bolonkin, V. A. (2015). Ultimate States in the Curing Process of Fiberglass Materials. University Proceedings. Aviation Technology, (3), 79-85. 7. Abdujabarov, N. A., Takhirov, J. K., & Shokirov, R. A. (2021). Current Status and Tendencies of Use of New Materials and Technologies in the Design of Unmanned Aircraft Vehicle (UAV). Universum: Technical Science, 12-6(93), 78-81.

8. Morozov, S. V. (2021). Effect of Physical Modification of Epoxy Matrix on the Physical-Mechanical Properties of Fiberglass. Polzunov Bulletin, (4), 157-162. 9. Solomatov, V. I., Bobryshev, A. N., & Proshin, A. P. (1983). Clusters in the Structure and Technology of Composite Building Materials. University Proceedings. Construction and Architecture, (4), 56-61. 10. Zweifel, H., Maier, R. D., & Schiller, M. (2010). Additives for Polymers: Handbook (Translated from English, Ed. by V. B. Uzdensky, A. O. Grigorov). Saint Petersburg: Profession Publishing, 1144 p. 11. Ostroumov, G. A. (1952). Free Thermal Convection in Internal Task Conditions. Leningrad: Gostekhizdat, 256 p. 12. Borodulin, A. S., Kosimov, U. D., & Malysheva, G. V. (2024). An Investigation of the Influence of Fiber Chemical Nature on the Adhesion Strength Value. Polymer Science, Series D, 17(3), 602-605.

12. Borodulin, A. S., Kosimov, U. D., & Malysheva, G. V. (2024). An Investigation of the Influence of Fiber Chemical Nature on the Adhesion Strength Value. Polymer Science, Series D, 17(3), 602-605. 13. Dmitriev, O. S., Zhyvenkova, A. A., & Dmitriev, A. O. (2016). Thermo-chemical analysis of the cure process of thick polymer composite structures for industrial applications. Advanced Materials & Technologies, 2, 53-60. 14. Ryngach, N. A., Bobin, K. N., & Kurlaev, N. V. (2019). Design and Manufacturing of Aircraft Structures from Composite Materials: Textbook. Novosibirsk: Novosibirsk State Technical University. ISBN 978-5- 7782-4085-8. EDN DHDGDD.

15. Bedilov, O. T., & Ganikhonov, A. A. (2022). Application of composite materials in aircraft structures. Theory and Practice of Modern Science, 12(90), 115-119. 16. Velichko, Ya. V., & Chirkov, P. R. (2017). Analysis of the prospects for using composite materials in the production of modern aircraft. Current Issues in Aviation and Astronautics, 13, 458-460. 17. Abdujabarov, N. A., Takhirov, J. K., & Shokirov, R. A. (2022). Repair of an unmanned aerial vehicle airframe with composite material. European Multidisciplinary Journal of Modern Science, 886-890. 18. Arutyunyan, A. R. (2020). Formulation of the criterion for fatigue strength of composite materials. Vestnik St. Petersburg State University: Mathematics, Mechanics, Astronomy, 7, 511–517.

18. Arutyunyan, A. R. (2020). Formulation of the criterion for fatigue strength of composite materials. Vestnik St. Petersburg State University: Mathematics, Mechanics, Astronomy, 7, 511–517. 19. Berlin, A. A. (2019). On the fatigue strength of natural materials. Vse Materialy: Entsiklopedichesky Spravochnik, 7, 2-3. 20. Yakovlev, N. O., Gulyaev, A. I., & Lashov, O. A. (2016). Crack resistance of layered polymer composite materials: A review. Proceedings of VIAM, 4, 12. 21. Baurova, N. I. (2011). Influence of nanostructured defects in carbon fibers and ribbons on sensor properties. Polymer Science, Series D, 4, 242–245. 22. Konoplin, A. Yu., & Baurova, N. I. (2016). Hardness of the near-weld zone during contact spot welding of steels using an adhesive–weld technology. Russian Metallurgy (Metally), 1308–1311.