Mathematical Modeling Methods in Teacher Education
Abstract
The aim is to establish a link between the methodological principles of integral mathematics and the principles of mathematical modeling for a holistic perception of methodological objects of various fields of knowledge and their more effective application in the strategy of modern teacher education.
Methods. To achieve this goal, methods of cluster analysis of models of mathematical structures and their comparison with similar structures in other subject areas are used, as well as methods of factorization of models by types of their representation.
Results. Combining various modeling methods and approaches and basic mathematical structures, preferring matrix representations of knowledge, the methodological basis for analyzing knowledge of various subject areas using mathematical modeling of objects and natural phenomena is determined. Using the example of the cognitive matrix model, the connection between the basic concepts of logic, algebra, analysis of variance and probability theory is established.
Conclusions. It has been established that it is advisable to analyze knowledge of any subject area and monitor the educational and scientific activities of a subject in a specific environment using mathematical models. In the research strategy of models, cognitive matrices that are closely related to the components of educational activity turn out to be the most effective.
About the Author
G. A. YarakhmedovRussian Federation
Gadzhiakhmed A. Yarakhmedov, Ph. D. of Physico-Mathematical Sciences, assistant professor, RAE Professor, the chair of Higher Mathematics
Makhachkala
References
1. Astafyeva V. V. Razrabotka matematicheskoy modeli neyronnoy seti [Development of a mathematical model of a neural network]. A young scientist. 2016. No. 19(123). Pp. 1-4. (in Russian)
2. Andreeva E. A., Tsiruleva V. I. Matematicheskoe modelirovanie upravleniya dinamicheskoy neyronnoy setu s zapazdivaniem [Mathematical modeling of control of a dynamic neural network with delay]. Modeling, optimization, and information technology. Scientific Journal. 2018. Vol. 6. No. 1. Pp.61-74. (in Russian)
3. Gaskarov D. V. Intellektualniye informatzionnye sistemy [Intelligent information systems]. Textbook for universities. Moscow: Higher School, 2003. 431 p. (in Russian)
4. Zvonarev S. V. Osnovy matematicheskogo modelirovaniya [Fundamentals of mathematical modeling: a textbook]. Yekaterinburg: Ural Publishing House. University, 2019. 112 p. (in Russian)
5. Makuseva T. G. Modelirovanie samoobrazovatelnoy deyatelnosti obuchaeushikhsya pri individualno-orientirovannom obuchenii [Modeling of self-educational activity of students in individually-oriented learning]. Bulletin of Kazan State Technological University. 2013. No. 12. Pp. 350- 353. (in Russian)
6. Tsetsorina T. A. Diagnostika individualnykh osobennostey vospryatiya I sposobov pererabotki informatsii u studentov, obuchayushikhsya po matematicheskomu profilyu [Diagnostics of individual characteristics of perception and methods of information processing among students studying in the mathematical profile]. Modern high-tech technologies. 2023. No. 5. Pp. 84-88. (in Russian)
7. Yarakhmedov G. A. Metodologiya integralnoy matematiki [Methodology of integral mathematics]. Makhachkala: ALEF Publishing House, 2024. 186 p. (in Russian)
Review
For citations:
Yarakhmedov G.A. Mathematical Modeling Methods in Teacher Education. Dagestan State Pedagogical University. Journal. Psychological and Pedagogical Sciences. 2025;19(3):86-92. (In Russ.) https://doi.org/378.147