European International Journal of Pedagogics
86
https://eipublication.com/index.php/eijp
TYPE
Original Research
PAGE NO.
86-91
DOI
3
OPEN ACCESS
SUBMITED
31 May 2025
ACCEPTED
29 June 2025
PUBLISHED
31 July 2025
VOLUME
Vol.05 Issue07 2025
COPYRIGHT
© 2025 Original content from this work may be used under the terms
of the creative commons attributes 4.0 License.
Technology for Directing
Physics Lectures Towards
the Development of
Creative Thinking
Turayeva Sevara Rashidovna
Researcher of the Belarusian-Uzbek Joint Inter-branch Institute of Applied
Technical Qualifications in Tashkent, Uzbekistan
Abstract:
Developing creative thinking is one of the key
goals of modern education, especially in preparing
future science teachers. Creative thinking enables
learners to approach problems from new perspectives,
generate original ideas, and establish meaningful
connections between concepts. This article explores the
importance of fostering creative thinking in physics
education through innovative teaching technologies.
Specifically, the article focuses on the integration of
creative thinking development strategies into lecture-
based instruction in physics. It argues that lecture
sessions, often considered passive, can be transformed
into active and intellectually stimulating experiences
through the use of visual simulations, interactive
models, and problem-based tasks.
The article presents a practical application of this
approach through the topic “Heat transfer in gases”. A
sample lesson design is provided that includes 2D/3D
visual simulations, conceptual explanations, and
creativity-oriented teaching methods. The model
demonstrates how physics lectures can be structured to
stimulate students' imagination, foster associative and
divergent thinking, and support systematic analysis
—
all
core components of creative thinking.
This work contributes to the growing field of creativity-
oriented STEM education and provides a model that can
be adapted by educators seeking to modernize their
physics instruction and enhance students’
cognitive
development.
Keywords:
Creative thinking, Physics education,
Instructional technology, Lecture-based learning, Heat
transfer in gases, Simulation-based teaching, Teacher
training, STEM methodology, Divergent thinking,
European International Journal of Pedagogics
87
https://eipublication.com/index.php/eijp
European International Journal of Pedagogics
Visualization in science.
Introduction:
In the modern educational landscape,
the concept of creativity has gained significant
attention as a core component of 21st-century skills.
Creativity is generally defined as the ability to generate
new, original, and valuable ideas. It is not limited to
artistic expression but extends to all domains of
knowledge, including science and education. One of
the key cognitive processes underlying creativity is
creative thinking. Creative thinking refers to the ability
to think in novel and flexible ways, make unusual
connections, approach problems from different
perspectives, and produce multiple solutions. It
encompasses essential mental skills such as
imagination,
association,
recombination,
transformation, generalization, and divergent thinking.
Developing creative thinking in future teachers is
especially important, as they will shape the mindset
and learning strategies of the next generation. In
physics education, where abstract concepts and
complex systems are often difficult to visualize or
relate to real-world contexts, creative thinking plays a
crucial role in deepening conceptual understanding
and encouraging problem-solving abilities. One of the
most effective ways to foster creative thinking in pre-
service physics teachers is through the use of virtual
educational tools, such as simulations, animations, and
interactive models. These tools allow learners to
visualize invisible phenomena, manipulate variables,
and experiment in a risk-free environment
—
thus
activating the components of creative thought.
This article introduces a model technology designed to
enhance creative thinking during physics lectures. The
model is demonstrated through a sample lesson on the
topic “Heat transfer in gases”, where visual
simulations, targeted instructional methods, and
creativity-oriented tasks are integrated to transform
traditional lectures into dynamic, thinking-centered
learning experiences.
Literature Review
Creative thinking has increasingly been recognized as a
crucial skill in modern education, particularly in science
disciplines such as physics. Dewi et al [2] emphasized
that STEM-based guided inquiry in physics classrooms
supports the development of students' creative skills.
Similarly, Said et al [8]. found a positive correlation
between students’ creative thinking abilities and their
academic performance in physics.
Maharani et al [5]. developed interactive physics
learning media integrated with creative and critical
thinking models, reporting that such integration
improved student outcomes. Fortunato Ribeiro [3]
conducted an integrative review and concluded that
teaching strategies that challenge students to analyze,
create, and evaluate physical phenomena are key to
fostering creative thinking.
In terms of teaching strategies, Lin [4] discussed
methods specifically tailored for middle school physics
education, such as open-ended questions, problem-
based learning, and visual simulations, which have
shown to stimulate creative engagement among
learners.
Moreover, computational tools and simulations are
increasingly used to build creative environments in
physics learning. Odden and Caballero [7] introduced
computational essays as a means to support deeper
conceptual understanding, while Brahmia et al [1].
highlighted that mathematization in physics, though
challenging, is essential for higher-order thinking.
Newton et al [6]. underlined the need for creativity in
higher education physics teaching, arguing that
creativity is not an add-on but a fundamental aspect of
understanding and applying scientific knowledge.
These studies collectively affirm that integrating
creative thinking strategies and virtual simulations into
physics instruction significantly enhances learners'
conceptual understanding and innovation skills. This
article builds upon this foundation by proposing a
specific instructional technology aimed at developing
creative thinking through lecture-based physics topics,
exemplified by the “Heat transfer in gases” lesson.
METHODOLOGY
This study adopts a practice-based qualitative research
approach to explore the effectiveness of technology-
integrated instruction in developing creative thinking
skills among future physics teachers. The research was
conducted in a higher education context, specifically
involving students enrolled in a bachelor's program for
prospective physics educators.
The participants of the study were undergraduate
students majoring in physics education at a university in
Uzbekistan. These pre-service teachers were selected
due to their direct engagement with both theoretical
and practical components of teaching physics.
The
designed
instructional
technology
was
implemented during lecture and practical sessions,
allowing flexible integration into various forms of
teaching. The chosen topic for instructional modeling
was “Heat transfer in gases”, a subtopic within
thermodynamics, considered suitable for enhancing
creative thinking due to its conceptual complexity and
applicability.
The teacher should familiarize students with theoretical
European International Journal of Pedagogics
88
https://eipublication.com/index.php/eijp
European International Journal of Pedagogics
knowledge about heat transfer in gases. For example:
In gases, the heat conduction process occurs through
the movement of molecules. The fast-moving
molecules in a high-temperature region collide with
the slower molecules in a lower-temperature region,
exchanging energy. This phenomenon is called
molecular heat conduction.
The thermal conductivity of gases is generally much
lower than that of solids and liquids, because the
distance between their particles is large, making energy
transfer less efficient.
When two gases are placed side by side, the rate of heat
transfer between them. The rate of heat transfer
between two gases is determined based on Fourier's
law:
𝑄 = − 𝑘 ∙ 𝐴 ∙
△ 𝑇
△ 𝑥
Where:
𝑄
— heat flux density (W/m²),
𝑘
— thermal conductivity of the gas (W/m·K),
𝐴
—surface area (m²),
△𝑇
△𝑥
— temperature gradient, i.e., the change in temperature with respect to distance.
Figure 2. Virtual development for studying heat transfer in gases
A custom-developed 2D virtual simulation was
employed to model thermal conductivity between two
gas samples with modifiable parameters such as gas
type, amount of substance, and temperature. The
simulation displayed the rate of heat transfer based on
these variables, providing an interactive and dynamic
learning environment.
European International Journal of Pedagogics
89
https://eipublication.com/index.php/eijp
European International Journal of Pedagogics
Figure 3. Buttons of a virtual development for studying heat transfer in gases (left
side)
This section contains buttons for changing the
type, amount, and temperature of the first gas, and
when these parameters are changed, it is possible to
observe how the behavior in the simulation changes.
For example, the dependence of gas temperature on
velocity. Using the external sub-buttons, you can also
obtain information on the topic of heat transfer in
gases.
Figure 4. Buttons of a virtual development for studying heat transfer in gases (right
side)
In this section, you can change the type of the second
gas and its parameters, such as the amount of
substance, temperature, etc. Changing these
parameters also affects the behavior in the simulation,
and each change will lead to a change in the numerical
value of the heat transfer rate between the two gases.
At the bottom of this section, there is a button for the
recommended method and a button for problematic
questions on the topic of heat transfer in gases.
The simulation included:
A “Method”
button, which suggested a recommended
instructional method
—
in this case, the SCAMPER
method
—
to guide creative thinking during lesson
delivery.
European International Journal of Pedagogics
90
https://eipublication.com/index.php/eijp
European International Journal of Pedagogics
A “Problem Questions” button, offering challenging,
open-ended questions related to the topic to stimulate
critical discussion and inquiry.
SCAMPER Method in Action
The SCAMPER method (Substitute, Combine, Adapt,
Modify, Put to another use, Eliminate, Reverse) was
utilized as a cognitive tool for engaging students in
exploring alternative explanations and applications of
thermal conductivity principles. For instance:
Substitute: What happens if we replace helium with
carbon dioxide under the same conditions?
Combine: Can we observe the result when combining
hot and cold gases?
Adapt: How does this phenomenon apply to real-life
systems like air conditioning?
And so on, prompting students to think beyond the
textbook definitions.
Assessment of Creative Thinking: To evaluate the
development of creative thinking, a combination of pre-
and post-tests, reflective journals, and classroom
observations were used. These tools were designed to
assess the following dimensions of creative thinking:
fluency, originality, elaboration, flexibility, and critical
evaluation
—
based on Torrance's creativity model.
Instructors used a rubric
to rate students’ responses and
solutions in alignment with these dimensions.
RESULTS
The implementation of a virtual simulation tool
integrated with the SCAMPER method was evaluated in
a physics lecture on thermal conductivity in gases. The
participants were 48 second-year students enrolled in a
physics teacher training program.
A pre-test and post-test were administered to assess
changes in students’ creative thinking skills. The test
measured four components of creativity: fluency,
flexibility, originality, and elaboration. The results are
summarized in Table 1.
Table 1. Pre-test and Post-test Average Scores (5-point scale)
Component
Pre-Test
Post-Test
Difference
Fluency
2.6
4.1
+1.5
Flexibility
2.4
3.9
+1.5
Originality
2.1
3.7
+1.6
Elaboration
2.8
4.0
+1.2
In addition to the test, observational checklists were
used during the class sessions to track engagement and
participation. It was noted that over 85% of the
students actively interacted with the simulation, posed
creative questions, and proposed their own scenarios
using SCAMPER.
Furthermore, reflective journals submitted by students
after the session revealed a heightened interest in
applying innovative methods in future teaching
practice. More than 90% of participants agreed that
the virtual simulation made the abstract concept of
thermal conductivity more understandable and
sparked curiosity.
DISCUSSION
The findings of this study suggest that the integration
of virtual simulation tools with creative thinking
strategies, particularly the SCAMPER method,
significantly enhances the development of creative
thinking among future physics teachers. The observed
improvements across all four components of
creativity
—
fluency,
flexibility,
originality,
and
elaboration
—
are consistent with previous research
(Torrance, 1974; Runco and Acar, 2012) that emphasizes
the importance of active engagement and open-ended
problem-solving in cultivating creativity.
These results align with studies by Mishra, Koehler
(2006) and Voogt et al. (2015), which highlight that
technology-enhanced learning environments foster
innovative thinking when combined with pedagogical
strategies that challenge students to analyze, adapt, and
invent.
In the context of teaching thermal conductivity in gases,
the virtual simulation served not only as a visualization
tool but also as a platform for experimentation and
hyp
othesis generation. Students’ ability to manipulate
variables and immediately observe outcomes mirrors
real scientific inquiry, thus strengthening both their
conceptual understanding and creative confidence.
The SCAMPER method, embedded in the simulation,
encouraged
students
to
reinterpret
standard
knowledge through alternative perspectives
—
e.g.,
substituting variables, combining gas types, or
European International Journal of Pedagogics
91
https://eipublication.com/index.php/eijp
European International Journal of Pedagogics
modifying quantities. This approach fostered divergent
thinking and deeper exploration, which are essential in
teacher education.
Moreover, the high levels of engagement and
reflective feedback indicate that virtual tools
—
when
properly scaffolded
—
can motivate learners to take
intellectual risks and think beyond conventional
methods. This supports the view of Sternberg, Lubart
(1995), who argue that creativity in education emerges
when learners are given the freedom and structure to
explore novel ideas within relevant contexts.
Overall, the study demonstrates that creatively
designed virtual resources can play a pivotal role in
modernizing physics education and preparing future
teachers to nurture creativity in their own classrooms.
CONCLUSION
This study has demonstrated that creative thinking can
be effectively cultivated in future physics teachers
through the integration of virtual simulations and
structured instructional strategies such as the
SCAMPER method. By using a specially designed 2D
digital resource in the context of teaching thermal
conductivity in gases, students were encouraged to
explore, question, and innovate
—
hallmarks of creative
cognition.
The use of interactive simulations allowed learners to
visualize abstract physical concepts and engage in
exploratory learning, while the embedded SCAMPER
approach guided them in generating novel solutions
and interpretations. As a result, all four components of
creative thinking
—
fluency, flexibility, originality, and
elaboration
—
showed marked improvement.
The findings underscore the need for teacher
education programs to incorporate creativity-focused
technologies and pedagogical methods, especially in
subjects like physics where conceptual abstraction is
high. Further research could expand this approach to
other physics topics and explore its long-term impact
on teaching performance.
REFERENCES
Brahmia.S., BoudreauxA., Kanim.S.E. Obstacles to
mathematization in introductory physics. arXiv
preprint,
arXiv:1602.02033.
–
2016.
https://doi.org/10.48550/arXiv.1602.02033
Dewi.R.R., Suana.W., Santosa.H. Developing creative
thinking skills through STEM-based guided inquiry
physics learning. Jurnal Penelitian Pendidikan IPA
(JPPIPA),
4(2),
110
–
115.
–
2019.
https://journal.unesa.ac.id/index.php/jppipa/article/v
iew/5545
Fortunato Ribeiro.R.S. Developing students' creative
thinking skills through physics education: An
integrative review. Journal of Education Development
and Practice, 6(1), 56
–
71.
–
2025.
journal.unja.ac.id/EDP/article/view/25281
Lin.H.Y. Strategies for developing students’ creative
thinking in physics learning in middle school. Education,
Humanities and Social Sciences, 5(2), 27
–
36.
–
2023.
https://drpress.org/ojs/index.php/EHSS/article/view/1
2437
Maharani.R.R.,
Hendayana.S.,
Suhendra.S.
The
development of interactive physics learning media
based on critical and creative thinking models to
improve student learning outcomes. Jurnal Eksakta
Pendidikan
(JEP),
6(2),
142-151.
–
2022.
https://jep.ppj.unp.ac.id/index.php/jep/article/view/7
14
Newton.D.P., Nolan.A., Rees.D. Thinking creatively in
teaching physics: A guide for university lecturers. IOP
Publishing.
–
2022.
https://iopscience.iop.org/book/mono/978-0-7503-
4028-1
Odden.T.O.B., Caballero.M.D. Computational essays for
teaching physics. arXiv preprint, arXiv:1909.12697.
–
2019.
https://arxiv.org/abs/1909.12697
Said.N., Nugroho.S.E., Wardani.R. The relationship
between creative thinking ability and student
achievement in physics. Unnes Science Education
Journal,
13(1),
32
–
39.
–
2024.
https://journal.unnes.ac.id/journals/usej/article/view/
14516
