INTERNATIONAL JOURNAL OF ARTIFICIAL INTELLIGENCE
ISSN: 2692-5206, Impact Factor: 12,23
American Academic publishers, volume 05, issue 06,2025
Journal:
https://www.academicpublishers.org/journals/index.php/ijai
page 1214
DEVELOPING STUDENTS’ INTEREST IN PHYSICS LESSONS AND ENHANCING
CREATIVE THINKING
Yusufjon Azimov
Senior Lecturer at the Branch of Kazan (Volga Region)
Federal University in Jizzakh, Uzbekistan
Abstract:
The article explores various aspects of forming competencies in physics lessons
within a creative teaching process.
Keywords:
development of competencies, quality of education, competence, competency-
based approach, creativity, education, learning process, students.
In today’s world, the rapid advancement of new technologies has led to a significant increase in
the need for individuals who can independently solve emerging societal problems and enrich all
spheres of social life with new content. As humanity enters an era of science-driven
technologies, there is a growing awareness that it is impossible for a country to claim a worthy
place in the global community without preserving its intellectual potential and developing
creative thinking. Accordingly, educational systems around the world have recognized the need
to prepare individuals who are not only able to live in modern society but can actively influence
its development.
In this context, the adoption of the Decree of the President of the Republic of Uzbekistan Sh.M.
Mirziyoyev “On Measures to Improve the Quality of Education and Develop Scientific
Research in the Field of Physics” has brought the process of teaching physics to a new
qualitative level. The decree outlines several unresolved issues and highlights the need to
implement measures to improve the quality of physics education and the effectiveness of
scientific research [1].
It is impossible to imagine teaching physics without practical experiments and demonstrations,
which should be integral to both in-class and extracurricular activities. However, not all
experiments can be conducted in a classroom setting. Nowadays, such challenges can be
overcome through various technical and information-communication educational tools.
In the process of developing school students' interest in physics and enhancing creative thinking,
it is crucial to address issues related to using diverse educational tools to increase the
effectiveness of education—for example, hands-on experiments, technical teaching aids (TTA),
ICT, and project-based learning.
To make physics lessons more engaging and to spark students' interest, teachers should
coordinate their efforts using a variety of pedagogical methods. These methods should not only
captivate students but also help develop their creative thinking. Without cultivating a sense of
duty and responsibility towards learning, it is impossible to foster genuine interest in acquiring
knowledge and deeply understanding the subject matter.
We highlight three main principles for increasing student interest in physics lessons:
1.Stimulating interest in the subject should not be an end in itself but a means to achieve
broader educational goals.
2.By developing interest and creative thinking, the teacher helps students internalize knowledge
creatively, resulting in deeper, independent engagement with the subject.
INTERNATIONAL JOURNAL OF ARTIFICIAL INTELLIGENCE
ISSN: 2692-5206, Impact Factor: 12,23
American Academic publishers, volume 05, issue 06,2025
Journal:
https://www.academicpublishers.org/journals/index.php/ijai
page 1215
3.The core task of teaching is to guide each student towards regular intellectual effort, self-
education, and using their free time creatively [2].
A subject teacher should constantly and purposefully work to engage students with the subject
at all stages of the lesson, including during independent work. Psychological, pedagogical, and
methodological literature present various definitions of “independent work,” and most scholars
agree on the teacher's active role in organizing and supporting it.
Prominent pedagogical researchers such as N.G. Dairi, M.A. Danilov, B.P. Esipov, I.T.
Ogorodnikov, M.N. Skatkin, S.V. Ivanov, and I.Ya. Lerner have made significant contributions
to understanding how to organize independent work in a way that fosters students’ interest in
the subject and promotes creative thinking [3].
The key stages of organizing such work include:
Preparation.
At this stage, the teacher explains the purpose of the work, identifies the best
paths to success, and helps students choose relevant scientific and reference materials. The
teacher must also prepare necessary resources to foster interest and creativity, focusing on
developing students' creative thinking and skills.
Organization of Independent Work.
A key goal here is to engage students in intellectual
activity while guiding them to act according to certain rules. The teacher encourages students to
move from model-based tasks to more complex assignments, drawing on acquired knowledge
and utilizing various sources and methods to develop creative thinking.
Comprehension and Generalization.
Independent work also includes a more complex form of
homework that helps solidify the topic.
Final Stage.
At this point, the teacher assists students in selecting creative tasks that promote
self-development and self-education [4].
Interest in lessons or extracurricular topics, teacher explanations, and task assignments
contributes to creating a positive learning environment, but this alone does not guarantee the
development of sustained interest or creative thinking. The decisive factor is personal creative
activity, curiosity, and a student's motivation for self-education.
To increase the effectiveness of methods used during lessons, teachers must select educational
tools that facilitate understanding and mastery of the topic. Physics teachers should provide
opportunities for students to compare theoretical knowledge with practical experiences and
demonstrate the validity of physical laws observed in nature and technology. All educational
tools must aim to facilitate knowledge acquisition.
These tools include:
Practical experiments
Information and communication technologies (ICT)
Technical teaching aids (TTA)
Project-based activities
1.Practical Experimentation.
This is a learning tool that helps students understand the fundamental laws of theory and
practice. Its use simplifies the assimilation of topics, fosters interest in physics, enhances
experimental knowledge and skills, and introduces students to experimental methods of
studying physical phenomena.
Types of experiments include:
Demonstration experiments
Laboratory experiments
Practical exercises
INTERNATIONAL JOURNAL OF ARTIFICIAL INTELLIGENCE
ISSN: 2692-5206, Impact Factor: 12,23
American Academic publishers, volume 05, issue 06,2025
Journal:
https://www.academicpublishers.org/journals/index.php/ijai
page 1216
Home-based experiments and observations
Experimental tasks
In practice, experiments aim to study the nature of physical processes, laws, or phenomena.
They help draw conclusions through analysis and generalization. Most commonly in schools,
demonstration or laboratory experiments are used. Depending on lesson goals, the teacher
chooses the appropriate type of experiment.
In a demonstration experiment, which may occur in natural conditions, students typically
observe rather than participate. The teacher acts as both organizer and executor. Laboratory
work may include frontal lab work, experimental tasks, practical exercises, or home-based
experiments. One advantage of laboratory work is students’ direct involvement with
instruments and materials.
Practical experiments help resolve the following pedagogical challenges:
Increase motivation through hands-on application of learned knowledge
Confirm or refute student assumptions regarding physical phenomena
Focus student attention on essential features of studied topics
2. Information and Communication Technologies (ICT)
ICT tools offer powerful ways to visualize abstract concepts and engage digital-native students:
Simulations and virtual labs: Allow students to experiment with phenomena
that are difficult to recreate in school labs.
3D planetarium software like Stellarium: Helps visualize celestial mechanics
interactively.
Interactive whiteboards and digital sensors: Provide dynamic, real-time feedback during
lessons.
Plickers and web quests: Enable formative assessment and inquiry-based exploration.
3. Technical Teaching Aids (TTA)
These include equipment and visual aids such as models, diagrams, charts,
and physical devices that clarify complex topics. When integrated effectively, TTAs improve
the clarity of instruction and enhance student comprehension.
4. Project-Based Learning (PBL)
Involving students in short- and long-term physics-related projects allows
them to explore topics of interest, conduct investigations, collaborate with peers, and present
findings. PBL nurtures creativity, critical thinking, and communication skills-all essential for
21st-century learners.
The development of students’ interest in physics and their creative thinking skills is an essential
objective of modern education. Teachers play a pivotal role in this process by designing
engaging, thought-provoking, and student-centered lessons. Through the use of interactive
methods, experiments, ICT tools, and project-based learning, physics education can be
transformed into a dynamic and inspiring discipline.
By fostering independent learning and creativity, educators not only enhance students’
academic achievement but also prepare them for the challenges of the modern world-where
scientific literacy and innovative thinking are critical for success.
INTERNATIONAL JOURNAL OF ARTIFICIAL INTELLIGENCE
ISSN: 2692-5206, Impact Factor: 12,23
American Academic publishers, volume 05, issue 06,2025
Journal:
https://www.academicpublishers.org/journals/index.php/ijai
page 1217
List of references used:
1.Ўзбекистон Республикаси Президентининг 2021-йил 19-мартдаги “Физика соҳасидаги
таълим сифатини ошириш ва илмий тадқиқотларни ривожлантириш чора-тадбирлари
тўғрисида”ги ПҚ-5032-сон қарори.
2. Туник Е. Диагностика творческого мышления. - М.: «Чистые пруды», 2006.
3. Хуторский А.В. Развитие одарённости школьников: Методика продуктивного
обучения. – М., 2000.
4. Харламов,
И.
Ф.
Как
активизировать
учение школьников.
Минск: 2003. - 208 с.
5. Azimov Yu. Development of creativism in the educational process / Journal of
Contemporary World Studies., 2(1). January 2024 P.4-7.
6. Azimov Yu. Directions for improving the quality of education in physics class / International
Journal of Advance Scientific Research. Volume 03 Issue 05. 2023.05.22. P. 69-74
7. Azimov Yu. Develop creative thinking in students based on a competency-based approach /
CURRENT RESEARCH JOURNAL OF PEDAGOGICS. Volume 03, Issue 03. 2022.3.14.
P.5-8.
8. Azimov Yu. Kompetensiyaviy yondashuv asosida o‘quvchilarda kreativ fikrlashni
rivojlantirish metodikasi / Journal of Academic Research and Trends in Educational Sciences
(JARTES) Volume 1, Issue 11 (2022) 80-91-betlar.
