ACCENTS IN THE STUDY OF THE TOPIC "COMPLEX NUMBERS" IN SECONDARY SCHOOL AND UNIVERSITY: THE EXPERIENCE OF THE REPUBLIC OF UZBEKISTAN
DOI:
https://doi.org/10.31110/ITandEA-v.2024.v2.03Keywords:
complex numbers, continuity, teaching mathematics, level of assimilation, degree of abstraction, mathematical educationAbstract
Reforms in the educational sphere are changing the content of both secondary and higher education. It also applies to mathematical education. We are considering the issue of continuity of studying the topic "Complex Numbers" at school and university in Uzbekistan: new sections "Combinatorics," "Elements of Mathematical Logic," "Complex Numbers," "Elements of Probability Theory," "Elements of Mathematical Statistics" and "Financial Mathematics" have been introduced into the school mathematics curriculum. Topics or their content are repeated. Therefore, developing a methodology for studying the newly introduced mathematics sections is necessary. We used the analysis of scientific, pedagogical, methodological, and mathematical literature and school textbooks on mathematics and the analysis of successive links of the section "Complex numbers." We conducted a pedagogical experiment to test the residual knowledge of students on the topic "Complex numbers." The experimental group consisted of 89 first-year students at Fergana State University. We used the analysis of descriptive statistics to interpret the data. We propose a methodology that considers the levels of assimilation of educational elements and different levels of abstraction that characterize the language of presentation of educational information on the topic of "Complex numbers." With its practical implications, this methodology will empower you to teach complex numbers effectively. The results obtained from our research will interest you, the school and university mathematics teachers in Uzbekistan. Your role in choosing a methodology for teaching mathematics is crucial, and these findings will guide you in this critical task.
References
AllambergenovI, Kh. (2019). The methodology for ensuring continuity in teaching the basics of mathematical analysis in the academic lyceum-university system. Abstract. Diss. PhD. Nukus.
Antonova, I.V. (2005). Implementation of the principle of continuity of teaching mathematics in secondary and higher schools: Dis. ... cand. ped sciences. M .
Balyk, N., & Shmyger, G. (2017). Approaches And Peculiarities Of Modern Stem Education. Physical and Mathematical Education, 2(12), 26-30.
Bespalko, V.P. (1989). Components of educational technology. Moscow: Pedagogy.
Botuzova, Yu. (2018). Geogebra Dynamic Models At The Mathematics Lessons As A Stem-Approach. Physical and Mathematical Education, 3(17), 31-35.
Dixon, M.R., Kurdaschenko, L.A., & Subbotin, I. Ya. (2010). Algebra and Number theory. An Integrated Approach. New Jersey.
Hom, E. J. (2022). What is STEM Education? Live Science Contributor. URL: http://www.livescience.com/43296-what-is-stem-education.html
Kulikov, L.Ya. (1979). Algebra and number theory. M. High School.
Mirzakhmedov, M.A. (2017). Mathematics 10-grade (2-part). Ukituvchi.
Mordkovich, A.G. (2002). Methodological problems of studying the elements of mathematical analysis in a comprehensive school, 9, 2-12.
Nazarov, R.N., Tashpulatov, B.T., & Dusumbetov, A.D. (1993). Algebra and number theory. Tashkent., I – part.
Qin, J. R., & Fu, G. S. (2017). Stem Education: Interdisciplinary Education Based on Real Problem Scenarios. China Educational Technology, 4, 67-74.
Semenikhina, O., Yurchenko, K., Shamonia, V., Khvorostina, Y., & Yurchenko, A. (2022). STEM-Education and Features of its Implementation in Ukraine and the World. Paper presented at the 2022 45th Jubilee International Convention on Information, Communication and Electronic Technology, MIPRO 2022 – Proceedings, 690-695. https://doi.org/10.23919/MIPRO55190.2022.9803620
Sirozhiddinov, S., Maksudov, Sh., & Salokhiddinov, M. (1978). Theory of the function of a complex variable. T.: Ukituvchi.
State educational standard and curriculum of secondary education (2017). Physics, mathematics, computer science, biology, geography, chemistry.
Turgunbaev, R.M. (2012). About some approaches of implementation of succession in training elements of the mathematical analysis in the system college - pedagogical university. European Applied Sciences, 1, 202-209.
Turgunbaev, R.M., & AllambergenovI, Kh. (2011). On ensuring continuity in the teaching of mathematics at academic lyceums and universities. Bulletin of KSU named after Berdakh. Nukus, 3-4, 42-44.
Turgunbaev, R.M., & AllambergenovI, Kh. (2013). On continuity in teaching elements of mathematical analysis (for example, academic lyceum-university). Science and Educationa New Dimension, 5.
Yata, C., Ohtani, T., & Isobe, M. (2020). Conceptual framework of STEM based on Japanese subject principles. IJ STEM Ed, 7, 12. https://doi.org/10.1186/s40594-020-00205-8
Zhao, Z. J. (2015). Progress of Stem Education Policy in the United States. Shanghai: Shanghai Science and Technology Education Press.
Downloads
Published
Issue
Section
License
Copyright (c) 2024 Tulkinjon Bakirov (Author)

This work is licensed under a Creative Commons Attribution-NonCommercial-ShareAlike 4.0 International License.
- Authors grant the journal a right of the first publication of the work under a Creative Commons Attribution-NonCommercial-ShareAlike 4.0 International License (CC BY-NC-SA 4.0)that allows others freely to use (read, copy and print) submissions, search content and link to published articles, disseminate their full text and use them for any legitimate non-commercial purposes (i.e. educational or scientific) with the mandatory reference to the article’s authors and initial publication in this journal.
- Original published articles cannot be used by users (exept authors) for commercial purposes or distributed by third-party intermediary organizations for a fee.
