Application of significant and symbolic approach in the process of forming students 'professional competenceshigher technical educational institutions
Svitlana Kirilashchuk, Zlata Bondarenko, Vitalii Klochko, Irina KhomyukThe article considers the problem of applying the sign-symbolic approach (modeling, coding, schematization, substitution) to the formation of students of technical specialties of high level of mathematical competence on the example of the formation of three components: to think mathematically; represent mathematical entities (objects and situations); have mathematical symbols and formalism. Some semantic and semiotic aspects of the selection of problems for teaching mathematics in the process of formation of professional competencies of future bachelors of technical profile are outlined
References
[1] Veryaev A.A. (2000). Semiotic approach to education in the information society. (Aabstract of Doctoral dissertation, Altai State Pedagogical University, Barnaul, RF).
[2] De Saussure, F. (2000). Notes on General Linguistics. Moscow: Progress.
[3] Trofimoiv, Yu.L., Rybalka, V.V., & Honcharuk, P.A. (1999). Psychology. Kyiv: Lybid.
[4] Salmina, N.G. (1988). Sign and symbol in education. Moscow: Moscow State University Publishing House.
[5] Tarasenkova, N.A. (2004). Theoretical and methodological foundations of the use of symbolic means in the teaching of mathematics to elementary school students. (Doctoral dissertation, National Pedagogical University named after M.P. Dragomanov. Kyiv, Ukraine).
[6] Sydorenko, V.K. (2013). Technical knowledge as an important element of professional training of a specialist for modern material and spiritual production. Bioresursy and Nature Management, 5, 155-164.
[7] Tsypina, D.S. (2019). Application of the sign-symbolic approach in the process of formation of foreign language competence of students of economic specialties. In Scientific Notes, Series: Pedagogical Sciences (Vol. 177, pp. 6-12). Kropyvnytskyi: RVV Central State University named after V. Vinnichenko.
[8] Alpers B. (Eds.). (2013). A framework for mathematics curricula in engineering education: A report of the mathematics working group. Brussels: European Society for Engineering Education.
[9] Niss, M. (2003). Mathematical competencies and the learning of mathematics: The Danish KOM project. In A. Gagatsis & S. Papastravidis (Eds.), 3rd Mediterranean conference on mathematics education (pp. 115-124). Athens: Hellenic Mathematical Society and Cyprus Mathematical Society.
[10] Lysyanska, T. (2020). Types of thinking as actions in the process of knowledge formation. Psychological Journal, 6(6), 75-83. doi: 10.31108/1.2020.6.6.8.
[11] Khomuyk, I., Ivanchenko, Ye., Maslii, O., & Gorlichenko, M. (2019). Innovative methods in the process of higher mathematics for future military engineers. In Society. Integration. Education: Proceedings of the international scientific conference (Vol. 1, рр. 254-264). Rezekne: Rezekne Academy of Technology.
[12] Khomyuk, I., Kyrylashchuk, S., Khomyuk, V., Bondarenkо, Z., & Klieopa, I. (2021). Methods of forming mathematical mobility of future engineers in higher mathematics classes. In Society. Integration. Education: Proceedings of the international scientific conference (Vol. 1, рр 270-281). Rezekne: Rezekne Academy of Technology.
[13] Bondarenko, Z., Kirilashchuk, S., Khomyuk, V., & Chernovolik, G. (2020). The problem of integration of higher mathematics with economic cycle disciplines in the process of teaching students. In Society. Integration. Education: Proceedings of the international scientific conference (Vol. 1, рр 374-384). Rezekne: Rezekne Academy of Technology.
[14] Klochko, O.V., Nagayev, V.M., Klochko, V.I., Pradivliannyi, M.G., & Didukh, L.I. (2018). Computer oriented systems as a means of empowerment approach implementation to training managers in the economic sphere. Information Technologies and Learning Tools, 68(6), 33-46.