FORMING STUDENTS’ SCIENTIFIC-THEORETICAL HOLISTIC THINKING THROUGH TEACHING THE FUNDAMENTAL LAWS OF CHEMISTRY BASED ON AN AXIOMATIC-DEDUCTIVE APPROACH
Keywords:
chemistry education, scientific thinking, STEAM, inquiry-based learning, innovative pedagogical technologies, critical thinking, competency-based approach, international experience, national experience, quality of education.Abstract
This article examines the theoretical and practical foundations for developing scientific thinking in chemistry education and analyzes both international and national educational experiences. It highlights the role of modern pedagogical technologies, the STEAM approach, inquiry-based learning, and innovative teaching methods in developing students’ scientific worldview, critical and logical thinking, and problem-solving competencies. The article also discusses opportunities for adapting advanced international practices to the national education system and provides recommendations for their practical implementation.
References
Allayarova S.N. Innovative mechanisms for directing students toward scientific research: Abstract of dissertation for the degree of Doctor of Pedagogical Sciences (DSc). Termez, 2023. 62 p.
Jack Holbrook, Miia Rannikmae. The Meaningful Chemistry Curriculum: Concepts and Models. Springer, 2016. 196 p.
James H. W., Dorothy Gabel. Chemistry: Concepts, Models, and Tools for Teachers. Addison-Wesley, 2013. 345 p.
Janet A. S. Teaching Chemistry: Principles and Techniques. Springer, 2018. 210 p.
Jim Kelly, Cathleen Heil. Chemistry Experiments for Secondary Education. Routledge, 2016. 214 p.
John K. Gilbert, David Treagust. Chemistry Education: Research and Practice in Europe. Springer, 2009. 387 p.
John W. H., Terry W. M. Teaching Chemistry for Understanding. Pearson, 2014. 276 p.
Kuchkarov M.A., N.I. Kamolova, M.M. Yusupov, L.N. Gapurova. Laboratory Classes in Organic Chemistry. Study Guide. Order No. 136 of the Ministry of Higher Education, Science and Innovation of the Republic of Uzbekistan dated April 14, 2025. Tashkent: Grand Kondor Print, 2025. 182 p.
Laura K. A. Exploring Chemistry through Interactive Simulations. Wiley, 2021. 250 p.
Laura K. A. Exploring Chemistry through Interactive Simulations. Wiley, 2021. 250 p.
Lutfullayev E.N., Normurodov Z.N., Berdiev A.T. Laboratory Classes in Chemistry. Tashkent: Uzbekistan, 2006. 106 p.
Mary B. N. Student Misconceptions in Chemistry. Springer, 2008. 214 p.
Masharipov S.M. Medical Chemistry: Part I. Tashkent: Uzbekistan, 2018. 296 p.
Michael Seery, Claire McDonnell. Teaching Chemistry in Higher Education: A Handbook for Instructors. University of Dublin Press, 2013. 304 p.
Nina J. Beaman, Janet C. Effective Chemistry Teaching in Secondary Schools. Routledge, 2013. 220 p.
Norman Herr. The Sourcebook for Teaching Chemistry. Jossey-Bass, 2009. 432 p.
Otayeva S.S. Methodology for Developing Students’ Scientific Research Activities Based on a Person-Centered Approach (using the teaching of pedagogical skills as an example): Abstract of dissertation for the degree of Doctor of Philosophy (PhD) in Pedagogical Sciences. Kokand, 2025. 60 p.
Turdiyev Z.Z., Kuchkarov M.A., Kamolova N.I. Inorganic Chemistry. Study Guide. Tashkent: Grand Kondor Print, 2025. 248 p.
Xolmirzayev O.I. Improving the Process of Increasing the Natural Science Literacy of Grade 9 Students through Home Experiments: Dissertation for the degree of Doctor of Philosophy (PhD) in Pedagogical Sciences. Andijan, 2023. 48 p.
Zikriyayev F.M. Methodology for Directing University Students toward Scientific Research through Creative Approaches: Abstract of dissertation for the degree of Doctor of Philosophy (PhD) in Pedagogical Sciences. Gulistan, 2024. 52 p.
Downloads
Published
How to Cite
Issue
Section
License
Copyright (c) 2025 GEJournals

This work is licensed under a Creative Commons Attribution-NonCommercial-NoDerivatives 4.0 International License.