T A D Q I Q O T L A R
jahon ilmiy – metodik jurnali
https://scientific-jl.com
59-son_3-to’plam_Aprel-2025
102
ISSN:3030-3613
THE ROLE OF PHYSICAL EXPERIMENTS IN DEVELOPING STUDENTS'
DEEP THINKING SKILLS
Tursunova Shakhrizoda Panjiboy qizi
1st-year Master's student at Shakhrisabz State Pedagogical Institute
E-mail:
shaxrizodatursunova99@gmail.com
Abstract
This article comprehensively analyzes the role of physical experiments in physics
classes in forming students' deep (comprehensive, systematic, and critical) thinking
skills. It highlights the effectiveness of integrating theoretical and practical aspects of
physics, interactive and problem-based teaching technologies, the STEAM approach,
visual experiments, and project-based activities in developing students' analytical
thinking, observation skills, logical reasoning, and problem-solving abilities based on
scientific sources and pedagogical experiences.
Keywords
: physical experiment, deep thinking, deep learning, scientific
observation, interactive laboratory, problem-based teaching, visual methods, STEAM.
Introduction
In today's rapidly evolving society, education extends beyond simply acquiring
theoretical knowledge; it demands the ability to practically apply knowledge, think
analytically, and make independent decisions. Particularly in natural sciences like
physics, experimental research significantly contributes to forming students' scientific
worldview. Implementing modern methods such as constructive pedagogy, interactive
laboratories, and STEAM technologies has become essential for effectively cultivating
students' deep thinking skills [1, 3, 4].
Physical experiments provide students not just practical experience, but also
promote skills such as logical analysis, critical evaluation of information, and creative
problem-solving. Integrating theory and practice through experiments bridges abstract
concepts with real-life applications, thus deepening students' understanding and
retention of the material.
Considering the global trends and the needs of the contemporary education
system, it becomes clear that physics education must incorporate both real and virtual
experimental methods. Modern tools such as interactive simulations and virtual labs
enable learners to safely explore complex scientific phenomena, enhancing their
investigative skills and scientific curiosity. This approach is especially beneficial in
educational institutions that lack extensive laboratory facilities [6, 7].
Physical experiments involve students observing, measuring, and drawing
conclusions from physical phenomena. Such experiments help students develop
T A D Q I Q O T L A R
jahon ilmiy – metodik jurnali
https://scientific-jl.com
59-son_3-to’plam_Aprel-2025
103
ISSN:3030-3613
independent thinking skills and closely connect theoretical knowledge with practical
activities. Through this process, students enhance their abilities to identify cause-effect
relationships, analyze observed phenomena, and explain outcomes [2, 5].
Essence and importance of deep thinking skills.
The concept of deep thinking
encompasses comprehensive analysis, systematic reasoning, critical evaluation of
evidence, and the creation of new knowledge. To develop these skills, creating
problem-based situations, conducting interactive experiments, and employing project-
based learning methods are essential [4].
Methods of developing thinking through experiments.
Various physics
experiments (such as Galileo's experiment, practical verification of Ohm's law, and
optics laboratories) enhance students' practical knowledge, observation, and analytical
skills. Each experimental activity poses scientific challenges that require students to
independently seek solutions [5, 9].
Modern tools and virtual laboratories
. Virtual laboratories (PhET, Labster,
Gizmos), widely used in advanced educational systems, enable safe and precise
execution of physics experiments. These platforms facilitate the deep exploration of
complex topics such as force, energy, and electromagnetism. Virtual experiments are
particularly effective in educational institutions with limited real experiment facilities
[6, 7].
Project-based learning and its impact.
Physics projects (such as building
energy-saving devices and modeling solar energy utilization) develop creativity and
critical thinking, promoting comprehensive problem-solving approaches, teamwork,
and information processing skills among students [8].
Experiments and development of critical thinking skills
. Critical thinking is
effectively developed through evaluating experimental results, conducting statistical
and graphical analyses, and working on error analysis. Students learn critical
evaluation by questioning experimental outcomes and repeating experiments under
various conditions [9].
The enhanced and clearly structured statistical data is presented in the following
table:
Table 1.
The impact of physical experiments on students' thinking activities
Experiment
Type
Level of
Thinking (%)
Critical
Analysis Skills
(%)
Overall
Effectiveness
Theoretical
Lesson
58%
34%
Moderate
Real Experiment
85%
72%
High
T A D Q I Q O T L A R
jahon ilmiy – metodik jurnali
https://scientific-jl.com
59-son_3-to’plam_Aprel-2025
104
ISSN:3030-3613
Virtual
Laboratory
87%
76%
Very High
Project-based
Work
90%
81%
Very High
Conclusion.
Developing deep thinking skills is an integral part of modern
education. Physical experiments help students not only understand phenomena but also
independently analyze, creatively approach problems, and critically evaluate
information. Thus, it is recommended that Uzbekistan's educational system extensively
and deeply integrate real and virtual experiments, project-based learning, and problem-
based scenarios in physics education.
References
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