Volume 04 Issue 02-2024
113
International Journal of Advance Scientific Research
(ISSN
–
2750-1396)
VOLUME
04
ISSUE
02
Pages:
113-121
SJIF
I
MPACT
FACTOR
(2021:
5.478
)
(2022:
5.636
)
(2023:
6.741
)
OCLC
–
1368736135
A
BSTRACT
Effective biology education plays a pivotal role in nurturing students' understanding of the intricate
complexities of living organisms and their environments. Traditional lecture-based approaches often
struggle to fully engage students and foster deep comprehension. This article explores the significance of
incorporating interactive teaching methods in biology education. By leveraging various interactive
techniques such as hands-on experiments, group discussions, technology-enhanced learning, and active
learning strategies, educators can create dynamic learning environments that stimulate curiosity, critical
thinking, and long-term retention of biological concepts. Through a comprehensive review of relevant
literature and examples of successful implementation, this article underscores the transformative impact
of interactive methods on enhancing student learning outcomes in biology education.
K
EYWORDS
Interactive teaching methods,Biology education, Active learning, Hands-on experiments, Group
discussions, Technology-enhanced learning, Active learning strategies, Peer instruction, Flipped
classroom, Problem-based learning, Case studies, Concept mapping, Student engagement
I
NTRODUCTION
Journal
Website:
http://sciencebring.co
m/index.php/ijasr
Copyright:
Original
content from this work
may be used under the
terms of the creative
commons
attributes
4.0 licence.
Research Article
ENHANCING BIOLOGY EDUCATION: THE INTEGRAL ROLE OF
INTERACTIVE TEACHING METHODS
Submission Date:
February 18, 2024,
Accepted Date:
February 23, 2024,
Published Date:
February 28, 2024
Crossref doi:
https://doi.org/10.37547/ijasr-04-02-18
Egamberdiyeva Nigora Akhmadkulovna
Teacher Of Biology At Jizzakh City 3 General Secondary School, 1st Grade Teacher, Uzbekistan
Volume 04 Issue 02-2024
114
International Journal of Advance Scientific Research
(ISSN
–
2750-1396)
VOLUME
04
ISSUE
02
Pages:
113-121
SJIF
I
MPACT
FACTOR
(2021:
5.478
)
(2022:
5.636
)
(2023:
6.741
)
OCLC
–
1368736135
Biology, the study of life and living organisms,
stands as one of the cornerstone disciplines in
science education. It encompasses a vast array of
topics ranging from the molecular mechanisms
within cells to the intricate ecosystems that
sustain life on Earth. Understanding biology is not
merely about memorizing facts and figures; it's
about grasping the interconnectedness and
dynamic nature of living systems. However,
traditional approaches to teaching biology often
rely heavily on passive learning methods such as
lectures and rote memorization, which may not
fully engage students or foster a deep
comprehension of biological concepts.
In recent years, there has been a growing
recognition of the limitations of traditional
teaching methods and a shift towards more
interactive approaches in biology education.
Interactive teaching methods actively involve
students in the learning process, encouraging
them to explore, question, and discover biological
principles
through
hands-on
activities,
discussions, and collaborative exercises. This
paradigm shift reflects a broader pedagogical
movement towards student-centered learning,
where the focus is not just on transmitting
knowledge but on cultivating critical thinking
skills, scientific inquiry, and a lifelong curiosity
about the natural world.
The integration of interactive teaching methods
in biology education holds immense promise for
enhancing student learning outcomes and
preparing future generations of biologists,
healthcare professionals, and informed citizens.
By immersing students in experiential learning
experiences, interactive methods provide
opportunities for them to make meaningful
connections between theoretical concepts and
real-world phenomena. Moreover, these methods
cater to diverse learning styles and promote
active engagement among students, fostering a
deeper understanding and appreciation of the
complexity and beauty of life.
In this article, we will explore the role of
interactive teaching methods in transforming
biology education. We will examine the
importance of interactive learning experiences in
promoting student engagement, discuss various
types of interactive teaching methods used in
biology classrooms, and provide examples of
successful implementation. Furthermore, we will
address the challenges and opportunities
associated with integrating interactive methods
into biology curricula and outline future
directions for research and pedagogical practice
in this rapidly evolving field. Ultimately, our aim
is to underscore the transformative potential of
interactive teaching methods in fostering a
generation of scientifically literate and
intellectually curious individuals who are
equipped to address the complex challenges
facing our world.
Importance of Interactive Teaching in Biology
Education:
Biology education serves as the foundation for
understanding the living world and its
complexities. It is crucial for students to not only
memorize biological facts but also develop critical
thinking skills and an appreciation for the
scientific process. Interactive teaching methods
play a pivotal role in achieving these goals by
fostering active engagement, promoting deeper
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International Journal of Advance Scientific Research
(ISSN
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2750-1396)
VOLUME
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Pages:
113-121
SJIF
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FACTOR
(2021:
5.478
)
(2022:
5.636
)
(2023:
6.741
)
OCLC
–
1368736135
understanding, and cultivating a sense of
curiosity and inquiry among students.
Active Engagement: Traditional lecture-based
approaches often result in passive learning
experiences, where students are mere recipients
of information rather than active participants in
the learning process. In contrast, interactive
teaching methods require students to actively
engage with the material through hands-on
activities, discussions, and problem-solving
exercises. By actively involving students in the
learning process, interactive methods capture
their attention, stimulate their curiosity, and
promote deeper levels of engagement with the
subject matter.
Deeper Understanding: Biology encompasses a
wide range of topics, from cellular processes to
ecosystem dynamics, each with its own
complexities and nuances. Interactive teaching
methods provide students with opportunities to
explore these concepts firsthand, allowing them
to observe biological phenomena, conduct
experiments, and analyze data in real-time. By
engaging in experiential learning experiences,
students gain a deeper understanding of
biological principles and develop the analytical
skills necessary to interpret and evaluate
scientific information critically.
Critical Thinking Skills: One of the primary goals
of biology education is to cultivate critical
thinking skills that enable students to evaluate
evidence, solve problems, and make informed
decisions. Interactive teaching methods promote
critical thinking by challenging students to apply
their knowledge to real-world scenarios, analyze
complex biological phenomena, and construct
logical arguments based on evidence. Through
activities such as case studies, simulations, and
collaborative projects, students learn to think
critically and creatively about biological concepts
and develop the problem-solving skills essential
for success in science and beyond.
Curiosity and Inquiry: The study of biology is
inherently fascinating, with its endless mysteries
and discoveries waiting to be uncovered.
Interactive teaching methods help to nurture
students' innate curiosity and foster a sense of
inquiry about the natural world. By encouraging
exploration, questioning, and discovery, these
methods inspire students to ask meaningful
questions, seek answers through scientific
inquiry, and develop a lifelong passion for
learning and discovery in the field of biology.
Preparation for the Future: In today's rapidly
changing world, the ability to think critically,
adapt to new challenges, and apply knowledge
across diverse contexts is more important than
ever. Interactive teaching methods not only equip
students with a solid foundation in biological
concepts but also instill the skills and habits of
mind necessary for success in the 21st century. By
promoting active learning, collaboration, and
problem-solving,
these
methods
prepare
students to thrive in a variety of academic and
professional settings, from research laboratories
to healthcare institutions to environmental
conservation organizations.
In summary, interactive teaching methods play a
vital role in biology education by fostering active
engagement, promoting deeper understanding,
cultivating critical thinking skills, nurturing
curiosity and inquiry, and preparing students for
Volume 04 Issue 02-2024
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(ISSN
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2750-1396)
VOLUME
04
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02
Pages:
113-121
SJIF
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MPACT
FACTOR
(2021:
5.478
)
(2022:
5.636
)
(2023:
6.741
)
OCLC
–
1368736135
future success. By embracing these methods,
educators can create dynamic learning
environments that inspire and empower students
to become lifelong learners and informed citizens
with a deep appreciation for the wonders of the
living world.
Types of Interactive Teaching Methods in Biology:
Interactive teaching methods offer diverse
approaches to engage students actively in the
learning process, catering to various learning
styles and promoting deeper understanding of
biological concepts. Below are several types of
interactive teaching methods commonly used in
biology education:
Hands-on Experiments: Hands-on experiments
involve students directly in scientific inquiry by
conducting laboratory investigations, field
studies, or demonstrations. These activities allow
students to observe biological phenomena
firsthand, collect data, analyze results, and draw
conclusions. Through hands-on experimentation,
students develop practical laboratory skills,
critical thinking abilities, and a deeper
appreciation
for
the
scientific
method.
Experiments
may
range
from
simple
observational studies to complex manipulative
experiments, depending on the level of the course
and available resources.
Group Discussions: Group discussions provide
opportunities for students to engage in
collaborative learning and knowledge sharing. In
biology classrooms, group discussions can focus
on analyzing case studies, debating ethical issues,
or exploring scientific concepts in depth. Through
structured discussions facilitated by the
instructor, students learn to articulate their ideas,
listen to diverse perspectives, and constructively
critique each other's arguments. Group
discussions promote active participation, critical
thinking, and communication skills, fostering a
deeper understanding of biological concepts
through peer interaction.
Technology-Enhanced Learning: Technology-
enhanced learning integrates digital tools and
resources to enhance biology instruction and
provide interactive learning experiences. Virtual
simulations, multimedia presentations, online
tutorials, and educational software can
supplement traditional teaching methods and
engage students in dynamic ways. Virtual labs, for
example, allow students to perform virtual
experiments in a simulated laboratory
environment, providing hands-on learning
experiences without physical constraints.
Interactive multimedia resources such as
animations, videos, and interactive websites can
illustrate complex biological processes and
facilitate visual learning. Technology-enhanced
learning offers flexibility, accessibility, and
interactivity, catering to diverse learning styles
and enhancing student engagement with course
materials.
Active Learning Strategies: Active learning
strategies require students to actively participate
in their own learning by solving problems,
making predictions, and applying concepts to
real-world situations. Problem-based learning,
case studies, concept mapping, and flipped
classroom approaches are examples of active
learning strategies commonly used in biology
education. In problem-based learning, students
work collaboratively to solve open-ended
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SJIF
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(2021:
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)
(2022:
5.636
)
(2023:
6.741
)
OCLC
–
1368736135
problems or investigate complex issues, applying
their knowledge to real-life scenarios. Case
studies present students with real-world
examples or scenarios to analyze, encouraging
critical thinking and decision-making skills.
Concept
mapping
visually
represents
relationships between biological concepts,
helping students organize and integrate their
understanding of complex topics. Flipped
classroom models involve students in pre-class
preparation activities, such as watching lectures
or completing readings, and reserve class time for
interactive activities, discussions, and application
exercises. Active learning strategies promote
student engagement, critical thinking, and
concept mastery, fostering deeper learning and
retention of biological concepts.
Peer Instruction: Peer instruction involves
students teaching and learning from each other
through structured activities facilitated by the
instructor. In biology classrooms, peer
instruction may take the form of peer tutoring,
peer review of assignments or presentations,
collaborative problem-solving, or peer-led
discussions. By engaging in peer-to-peer
interaction, students clarify misconceptions,
share
perspectives,
and
deepen
their
understanding of biological concepts. Peer
instruction fosters a collaborative learning
environment, promotes active engagement, and
reinforces student learning through peer
interaction and feedback.
Incorporating a combination of these interactive
teaching methods allows educators to create
dynamic learning environments that cater to
diverse learning styles, promote active
engagement, and enhance student understanding
of biological concepts. By embracing interactive
approaches, educators can foster a deeper
appreciation for the wonders of biology and
empower students to become lifelong learners
and critical thinkers in the field.
Implementing Interactive Teaching Methods:
Implementing interactive teaching methods in
biology education requires careful planning,
instructional design, and pedagogical support to
ensure effectiveness and engagement. Below are
key steps for integrating interactive teaching
methods into the classroom:
Align with Learning Objectives: Begin by clearly
defining learning objectives and desired
outcomes for the biology course or lesson.
Identify specific concepts, skills, or competencies
that students should acquire through interactive
learning experiences. Ensure that interactive
activities align with course objectives and
contribute to the overall learning goals.
Select Appropriate Activities: Choose interactive
teaching methods that are suitable for the
content, context, and student population.
Consider the level of the course, available
resources, and classroom dynamics when
selecting activities. Opt for a variety of interactive
approaches, including hands-on experiments,
group
discussions,
technology-enhanced
learning, and active learning strategies, to cater to
diverse learning styles and preferences.
Design Engaging Activities: Design interactive
activities that are engaging, relevant, and
meaningful for students. Incorporate real-world
examples, case studies, or practical applications
to connect theoretical concepts to everyday
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(ISSN
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VOLUME
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Pages:
113-121
SJIF
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FACTOR
(2021:
5.478
)
(2022:
5.636
)
(2023:
6.741
)
OCLC
–
1368736135
experiences.
Provide
clear
instructions,
guidelines, and expectations for participation to
ensure that students understand the purpose and
objectives of the activities.
Facilitate Active Learning: Actively engage
students in the learning process by facilitating
interactive activities that promote active
participation and collaboration. Encourage
students to ask questions, share ideas, and work
together to solve problems. Use open-ended
questions, prompts, and scaffolding techniques to
stimulate critical thinking and discussion.
Provide Support and Guidance: Offer support and
guidance to students throughout the interactive
learning
experiences.
Provide
resources,
materials, and tools necessary for completing
activities
successfully.
Offer
feedback,
encouragement, and assistance as needed to help
students overcome challenges and achieve
learning objectives.
Assess Learning Outcomes: Assess student
learning outcomes and progress using a variety of
formative and summative assessment methods.
Use pre-assessment activities to gauge students'
prior knowledge and misconceptions before
engaging in interactive activities. Incorporate
formative assessments such as quizzes, concept
maps, or peer evaluations to monitor student
understanding and provide timely feedback. Use
summative assessments such as exams, projects,
or presentations to evaluate student mastery of
biological concepts and skills.
Reflect and Iterate: Reflect on the effectiveness of
interactive teaching methods and make
adjustments as needed to improve student
engagement and learning outcomes. Solicit
feedback from students through surveys,
evaluations, or classroom discussions to gather
insights into their experiences with interactive
activities. Use this feedback to identify areas for
improvement and refine instructional practices
for future implementation.
Professional Development: Provide professional
development opportunities for educators to
enhance their knowledge, skills, and confidence
in implementing interactive teaching methods.
Offer workshops, training sessions, or online
resources on effective instructional strategies,
technology integration, and active learning
techniques. Encourage collaboration and sharing
of best practices among educators to promote
continuous improvement in biology education.
By following these steps and implementing
interactive
teaching
methods
effectively,
educators can create dynamic and engaging
learning environments that foster deeper
understanding, critical thinking, and active
participation among students in biology
education.
Conclusion:
Interactive teaching methods have emerged as
powerful tools for transforming biology
education,
fostering
active
engagement,
promoting deeper understanding, and preparing
students for success in the 21st century. By
integrating hands-on experiments, group
discussions, technology-enhanced learning, and
active learning strategies, educators can create
dynamic learning environments that inspire
curiosity, critical thinking, and lifelong learning in
the life sciences.
Volume 04 Issue 02-2024
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(ISSN
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2750-1396)
VOLUME
04
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Pages:
113-121
SJIF
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FACTOR
(2021:
5.478
)
(2022:
5.636
)
(2023:
6.741
)
OCLC
–
1368736135
Throughout this article, we have explored the
importance of interactive teaching methods in
biology education and highlighted their
numerous benefits. From promoting active
engagement to cultivating critical thinking skills
and nurturing a passion for scientific inquiry,
interactive methods offer unique opportunities
for students to explore the wonders of the living
world and develop the skills necessary for success
in academia, careers, and beyond.
However, the successful implementation of
interactive teaching methods requires careful
planning, instructional design, and pedagogical
support. Educators must align activities with
learning objectives, select appropriate methods,
design engaging experiences, provide support
and guidance to students, assess learning
outcomes, and reflect on their instructional
practices to ensure continuous improvement.
As we look to the future of biology education, it is
clear that interactive teaching methods will play
an increasingly integral role in preparing
students to meet the complex challenges of the
modern world. By embracing interactive
approaches, educators can empower students to
become lifelong learners, critical thinkers, and
informed citizens with a deep appreciation for the
beauty and complexity of life on Earth.
C
ONCLUSION
In conclusion, interactive teaching methods hold
immense promise for enhancing student learning
outcomes and fostering a generation of
scientifically literate individuals who are
equipped to address the pressing issues facing
our planet. As we continue to innovate and refine
our approaches to biology education, let us
remain committed to creating inclusive, engaging,
and transformative learning experiences that
inspire the next generation of biologists,
researchers, and stewards of the natural world.
R
EFERENCES
1.
Freeman, S., Eddy, S. L., McDonough, M.,
Smith, M. K., Okoroafor, N., Jordt, H., &
Wenderoth, M. P. (2014). Active learning
increases student performance in science,
engineering,
and
mathematics.
Proceedings of the National Academy of
Sciences, 111(23), 8410-8415.
2.
Handelsman, J., Miller, S., & Pfund, C.
(2007). Scientific teaching. Macmillan.
3.
Prince, M. (2004). Does active learning
work? A review of the research. Journal of
Engineering Education, 93(3), 223-231.
4.
Tanner, K. D. (2013). Structure matters:
twenty-one teaching strategies to promote
student
engagement
and
cultivate
classroom equity. CBE-Life Sciences
Education, 12(3), 322-331.
5.
Michael, J. (2006). Where's the evidence
that active learning works? Advances in
Physiology Education, 30(4), 159-167.
6.
AAAS. (2011). Vision and change in
undergraduate biology education: A call to
action. American Association for the
Advancement of Science.
7.
Cooper, M. M., Posey, L. A., & Underwood,
S. M. (2017). Core principles for
introducing active learning into large
Volume 04 Issue 02-2024
120
International Journal of Advance Scientific Research
(ISSN
–
2750-1396)
VOLUME
04
ISSUE
02
Pages:
113-121
SJIF
I
MPACT
FACTOR
(2021:
5.478
)
(2022:
5.636
)
(2023:
6.741
)
OCLC
–
1368736135
classes. International Journal of STEM
Education, 4(1), 12.
8.
Deslauriers, L., Schelew, E., & Wieman, C.
(2011). Improved learning in a large-
enrollment
physics
class.
Science,
332(6031), 862-864.
9.
Hake,
R.
R.
(1998).
Interactive-
engagement versus traditional methods: A
six-thousand-student survey of mechanics
test data for introductory physics courses.
American Journal of Physics, 66(1), 64-74.
10.
Муминова А. А. Узбекский речевой
этикет: сен (ты), сиз (вы, вы) //Вестник
Российского университета дружбы
народов.
Серия:
Теория
языка.
Семиотика. Семантика. –
2015.
–
№. 3. –
С. 95
-103.
11.
Муминова А. А. Формы обращения в
побудительных высказываниях (на
материале
узбекского
языка)
//Вестник
Южно
-
Уральского
государственного
гуманитарно
-
педагогического университета. –
2014.
–
№. 1. –
С. 168
-174.
12.
Муминова А. А.
Речевой этикет и
формулы побуждения (на материале
узбекского, русского и французского
языков) //В мире науки и искусства:
вопросы филологии, искусствоведения
и культурологии. –
2014.
–
Т. 2. –
№. 2
(33).
–
С. 13
-17.
13.
Муминова
А.
А.
СТРУКТУРНО
-
КОМПОЗИЦИОННЫЕ
ОСОБЕННОСТИ
РЕКЛАМНОГО
ТЕКСТА
//INTERNATIONAL
SCIENTIFIC
CONFERENCE" INNOVATIVE TRENDS IN
SCIENCE, PRACTICE AND EDUCATION".
–
2022.
–
Т. 1. –
№. 1. –
С. 45
-49.
14.
Муминова
А.
А.
СТРУКТУРНО
-
КОМПОЗИЦИОННЫЕ
ОСОБЕННОСТИ
РЕКЛАМНОГО
ТЕКСТА
//INTERNATIONAL
SCIENTIFIC
CONFERENCE" INNOVATIVE TRENDS IN
SCIENCE, PRACTICE AND EDUCATION".
–
2022.
–
Т. 1. –
№. 1. –
С. 45
-49.
15.
Мухаммаджонов
С.
ФЕНОМЕН
КРЕОЛИЗОВАННОГО
РЕКЛАМНОГО
ТЕКСТА //MODERN PROBLEMS IN
EDUCATION AND THEIR SCIENTIFIC
SOLUTIONS.
–
2023.
–
Т. 6.
–
№. 6. –
С. 176
-
178.
16.
Муминова
А.
А.
РЕКЛАМА
МАТНЛАРИДА
УНДАШ
КАТЕГОРИЯСИНИНГ СУГГЕСТИВ ТУРИ
//МЕЖДУНАРОДНЫЙ
ЖУРНАЛ
ИСКУССТВО СЛОВА. –
2021.
–
Т. 4. –
№. 2.
17.
Муминова А. СРЕДСТВА ВЫРАЖЕНИЯ
КАТЕГОРИИ ПОБУДИТЕЛЬНОСТИ В
РЕКЛАМНОМ ТЕКСТЕ //Journal of
science. Lyon.
–
2021.
–
№. 17
-1.
–
С. 47
-
52.
18.
Муминова А. ORDER, PERMISSION,
PROHIBITION AND INSTRUCTIONS IN
THE
CATEGORY
OF
MOTIVATION
//Danish Scientific Journal.
–
2021.
–
№.
45-2.
–
С. 20
-23.
19.
МУМИНОВА
А.
А.
КАТЕГОРИЯ
ПОБУЖДЕНИЯ В РЕКЛАМНЫХ ТЕКСТАХ
//Иностранные языки в Узбекистане. –
2020.
–
№. 5. –
С. 107
-117.
20.
Муминова А. А. ЛИНГВИСТИЧЕСКИЙ
РАКУРС
ИЗУЧЕНИЯ
РЕКЛАМНОГО
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SJIF
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(2021:
5.478
)
(2022:
5.636
)
(2023:
6.741
)
OCLC
–
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ТЕКСТА //Күп мәҙәниәтле арауыҡта
тел һәм әҙәбиәт: хәҙерге торошо һәм
үҫеш перспективалары. –
2020.
–
С. 310
-
313.
21.
Муминова А. А. СПОСОБЫ ПЕРЕДАЧИ
ЭМОЦИОНАЛЬНОСТИ ПРИ ПОМОЩИ
МЕЖДОМЕТИЙ
(НА
МАТЕРИАЛЕ
ФРАНЦУЗСКОГО ЯЗЫКА) //Вопросы
филологических наук. –
2014.
–
№. 2. –
С.
41-43.
22.
МУМИНОВА А. А. ИНОСТРАННЫЕ
ЯЗЫКИ
В
УЗБЕКИСТАНЕ
//ИНОСТРАННЫЕ
ЯЗЫКИ
В
УЗБЕКИСТАНЕ
Учредители:
Министерство высшего и среднего
специального образования Республики
Узбекистан. –
№. 2. –
С. 24
-33.
