Сутність поняття наукового мислення обдарованих учнів, його характеристики, особливості та структурні компоненти

This article examines the essence of scientific thinking in gifted students, highlighting its defining characteristics, structural components, and specific features that distinguish this form of intellectual development. In gifted learners, scientific thinking encompasses logical, critical, divergent, and convergent thinking. It is directed not only toward the discovery, assimilation, and application of new knowledge but also toward solving complex problems through analysis, synthesis, interpretation, and evaluation of information. This type of thinking includes several key aspects: – logical reasoning, which enables structured and well-grounded argumentation based on the principles of formal logic; – critical thinking, which allows students to question information, evaluate its credibility, and assess its relevance; – divergent thinking, which promotes the generation of multiple original ideas in response to open-ended, problem-based questions; – convergent thinking, which supports the identification of optimal solutions through logical analysis, generalization, and systemic reasoning; – reflexivity, defined as the ability to reflect on one’s own cognitive processes and adjust decision-making strategies accordingly; – integrative thinking, which facilitates the synthesis of knowledge from different domains to construct a holistic understanding of phenomena and processes. For gifted students, scientific thinking requires not only a high level of proficiency in cognitive tools, but also intellectual flexibility, reflexive awareness, and the ability to mobilize interdisciplinary knowledge in novel and complex cognitive contexts. The development of scientific thinking in this group involves the creation of a dedicated educational environment that stimulates exploratory activity, supports initiative, fosters experimentation, and nurtures sustained motivation for learning. This study emphasizes the importance of integrating diverse cognitive approaches–including divergent, convergent, logical, critical, reflexive, and interdisciplinary thinking–to ensure the comprehensive cognitive development of gifted students. Moreover, it underlines the vital role of pedagogical support in cultivating these intellectual strategies and stresses the necessity of educational practices that foster intellectual curiosity, problem-solving abilities, and innovative thinking. By developing scientific thinking, educators can help gifted students realize their full potential, thereby contributing to both individual intellectual growth and broader societal advancement.

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Publication Details

Journal
Освіта та розвиток обдарованої особистості
Published
2025-10-01
DOI
https://doi.org/10.63437/3083-6425-2025-3(98)-01
Primary Topic
Neuroscience, Education and Cognitive Function
Type
article
Field-Weighted Citation Impact
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article

Сутність поняття наукового мислення обдарованих учнів, його характеристики, особливості та структурні компоненти

Микола Піддячий
Освіта та розвиток обдарованої особистості
Neuroscience, Education and Cognitive Function
article

Сутність поняття наукового мислення обдарованих учнів, його характеристики, особливості та структурні компоненти

Микола Піддячий
article en

Abstract

This article examines the essence of scientific thinking in gifted students, highlighting its defining characteristics, structural components, and specific features that distinguish this form of intellectual development. In gifted learners, scientific thinking encompasses logical, critical, divergent, and convergent thinking. It is directed not only toward the discovery, assimilation, and application of new knowledge but also toward solving complex problems through analysis, synthesis, interpretation, and evaluation of information. This type of thinking includes several key aspects: – logical reasoning, which enables structured and well-grounded argumentation based on the principles of formal logic; – critical thinking, which allows students to question information, evaluate its credibility, and assess its relevance; – divergent thinking, which promotes the generation of multiple original ideas in response to open-ended, problem-based questions; – convergent thinking, which supports the identification of optimal solutions through logical analysis, generalization, and systemic reasoning; – reflexivity, defined as the ability to reflect on one’s own cognitive processes and adjust decision-making strategies accordingly; – integrative thinking, which facilitates the synthesis of knowledge from different domains to construct a holistic understanding of phenomena and processes. For gifted students, scientific thinking requires not only a high level of proficiency in cognitive tools, but also intellectual flexibility, reflexive awareness, and the ability to mobilize interdisciplinary knowledge in novel and complex cognitive contexts. The development of scientific thinking in this group involves the creation of a dedicated educational environment that stimulates exploratory activity, supports initiative, fosters experimentation, and nurtures sustained motivation for learning. This study emphasizes the importance of integrating diverse cognitive approaches–including divergent, convergent, logical, critical, reflexive, and interdisciplinary thinking–to ensure the comprehensive cognitive development of gifted students. Moreover, it underlines the vital role of pedagogical support in cultivating these intellectual strategies and stresses the necessity of educational practices that foster intellectual curiosity, problem-solving abilities, and innovative thinking. By developing scientific thinking, educators can help gifted students realize their full potential, thereby contributing to both individual intellectual growth and broader societal advancement.

Освіта та розвиток обдарованої особистостіVol. 3(98)
Openalex Percentile: Top 72%
Neuroscience, Education and Cognitive Function
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