International Journal of Pedagogics
228
https://theusajournals.com/index.php/ijp
VOLUME
Vol.05 Issue05 2025
PAGE NO.
228-235
10.37547/ijp/Volume05Issue05-57
Methodology of Using Natural Sciences Integration in Teaching
Students the Technology of Producing Nitrogen-Containing
Organic Compounds in The Chemical Industry
Kenjaboeva Xosiyat
student at the National University of Uzbekistan named after Nizami, Uzbekistan
Shernazarov Iskandar Ergashovich
Acting Professor, Doctor of Pedagogical Sciences (DSc) at National University of Uzbekistan named after Nizami, Uzbekistan
Received:
23 March 2025;
Accepted:
19 April 2025;
Published:
21 May 2025
Abstract:
This scientific-methodological paper presents a methodology for teaching students about nitrogen-
containing organic compounds produced in chemical industry enterprises, utilizing an integrative approach based
on natural sciences. The approach aims to reveal the practical relevance of the topic by harmonizing chemistry,
biology, ecology, medicine, and industrial sciences. The applied significance of major Uzbek chemical enterprises
such as "Navoiyazot" and "Farg‘onaazot," as well as the use of laboratory experiments and project
-based learning,
are highlighted as tools for developing interdisciplinary thinking, practical skills, and professional interest among
students. Furthermore, the content and analyses of this article are fully aligned with Uzbekistan's "New
Uzbekistan" Development Strategy for 2022
–
2026 and the concept of ensuring close linkage between science,
production, and education.
Keywords:
Nitrogen-containing organic compounds, industrial integration, educational innovations, STEAM
approach.
Introduction:
In the 21st century, the rapid
development of science and technology demands that
the education system prepare specialists with practical,
interdisciplinary knowledge, capable of independent
thinking and effective problem-solving. In particular,
deep and systematic instruction in the natural
sciences
—
especially in chemistry
—
is a pressing task,
enabling students to act independently in situations
linked to real industrial contexts.
Nitrogen-containing organic compounds occupy a
critically important place in chemistry. They are not
only of theoretical interest but also widely used in
practical fields such as medicine, agriculture, the food
industry, ecology, and pharmaceuticals. Knowledge
about their structure, properties, synthesis, and
applications plays a key role in developing students'
chemical thinking. Therefore, using interdisciplinary
approaches and integrating methods involving
industrial enterprises significantly strengthens and
deepens knowledge while demonstrating its practical
relevance.
In Uzbekistan, major chemical plants such as
“Navoiyazot” JSC, “Maxam
-
Chirchiq” LLC, and
“Farg‘onaazot” JSC serve as practical schools for the
synthesis and application of nitrogen compounds.
Establishing integrated collaboration with these
enterprises in the educational process enhances not
only theoretical knowledge but also prepares students
for practical application.
Moreover, international educational standards (such as
those by OECD P
ISA, UNESCO, and Bloom’s Taxonomy)
emphasize the importance of applying knowledge in
interdisciplinary contexts to assess students’ deep
understanding of science. Therefore, teaching
nitrogen-containing compounds in conjunction with
biology, ecology, technology, and informatics aligns
with these standards and supports the development of
students' intellectual potential.
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This article analyzes, on a scientific basis, the content,
methodology, and practical results of a modern
interdisciplinary approach to teaching nitrogen-
containing organic compounds in integration with
Uzbekistan's industrial enterprises. The proposed
approach is aimed at the harmonious development of
students' theoretical knowledge and practical skills, as
well as fostering their interest in scientific research.
Nitrogen-containing
organic
compounds
are
hydrocarbons that include nitrogen (N) atoms and are
key components in vital biological processes and
industrial
chemistry.
These
compounds
are
distinguished by their chemical properties, reactivity,
and biological significance.
The main classes of nitrogen-containing organic
compounds include:
1.
Amines (R-
NH₂, R₂NH, R₃N):
These are derivatives of ammonia and can be classified
as primary, secondary, or tertiary.
Example: Methylamine (CH₃NH₂),
Dimethylamine
((CH₃)₂NH)
2.
Amides (R-CO-
NH₂):
Formed by condensation between carboxylic acids and
amines.
Example: Acetamide (CH₃CONH₂)
3.
Nitro Compounds (R-
NO₂):
Compounds where the nitrogen atom is bonded to a
carbon via a nitro group.
Example: Nitrob
enzene (C₆H₅NO₂)
4.
Nitrogen-containing heterocycles:
Ring structures containing nitrogen atoms.
Examples: Pyridine, Imidazole, Purine
5.
Amino acids and proteins:
Biologically active compounds that serve as the
building blocks of living organisms.
Example
s: Glycine (NH₂CH₂COOH), Alanine, Lysine
Many nitrogen-containing compounds are water-
soluble and capable of forming hydrogen bonds.
Amines exhibit basic properties and form salts with
acids. Nitro compounds are highly polar and may
possess explosive properties.
Chemical reactions and synthesis pathways:
•
Amines synthesis: Reaction of haloalkanes
with ammonia
•
Amides synthesis: Carboxylic acids +
amines → amides + water
•
Nitro compounds synthesis: Aromatic
hydrocarbons + concentrated HNO₃/H₂SO₄ →
nitroaromatic compounds (nitration reaction)
Biological and industrial significance:
•
Amino acids and proteins are fundamental
components of living cells.
•
Nitrogen fertilizers (urea, ammonium
nitrate) are widely used in agriculture.
•
Nitro compounds are used in the
production of explosives (TNT), pharmaceuticals
(paracetamol), dyes, and plastics.
Problems of Application in Education
Students often face difficulties in understanding
abstract concepts (such as intermolecular bonds,
hydrophilic/lipophilic properties). A lack of practical
experience leads to an inability to connect theoretical
knowledge with real-life situations. Additionally, the
fact that educational materials sometimes do not
reflect modern industrial realities lowers student
motivation.
Advantages of Interdisciplinary Approach in Education
The modern education system aims to teach students
to think critically, solve problems, and adapt to
practical tasks by revealing the interconnections
between disciplines rather than studying them
separately. This principle is emphasized in international
educational standards, such as the OECD PISA, the
UNESCO Global Education Monitoring Report, and the
21st Century Skills framework.
Essence of the Interdisciplinary Approach
The interdisciplinary approach is a teaching method
that establishes connections between several
disciplines (e.g., chemistry, biology, physics, computer
science, technology) and teaches them in an integrated
manner. Through this method:
Students learn to apply abstract knowledge in real-life
contexts.
The subject matter is explored from the perspectives of
different disciplines, which ensures a deeper and more
systematic understanding.
The integration of theory and practice is strengthened.
For example, in the study of nitrogen-containing
organic compounds, the following interdisciplinary
integration can be implemented:
Subject
Integration Path
Biology
Nitrogen bases in proteins, amino acids, DNA, and RNA.
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International Journal of Pedagogics (ISSN: 2771-2281)
Ecology
Nitrogen cycle, soil pollution through fertilizers.
Technology
Production of nitrogen fertilizers, synthesis methods.
Informatics
Construction of 3D molecular models, simulation of reactions.
Physics
Energy of chemical bonds, basics of spectroscopy.
Advantages of the interdisciplinary approach:
High-level knowledge is formed based on Bloom's
taxonomy:
analyzing,
evaluating,
creating.
It
corresponds to constructivist pedagogy: shaping the
student as an active participant rather than a passive
recipient.
It supports the STEM approach: teaching in the
harmony of science, technology, engineering, and
mathematics. It develops creativity and innovative
thinking.
It increases motivation
—
the student sees the practical
value of their knowledge in real life.
Experience and practical evidence:
In the Finnish education model, teaching based on
interdisciplinary projects has become a national
standard. In Uzbekistan, some higher education
institutions (for example, TATU, Tashkent Chemical-
Technological
Institute)
have
established
interdisciplinary laboratory works. In an experiment
conducted in 2022 among students of the chemistry-
biology specialty in Tashkent, groups using the
interdisciplinary approach achieved on average 17%
higher results.
The necessity of teaching nitrogen organic compounds
integrated with industry
: Modern chemical education
requires not only theoretical knowledge but also a
practice-oriented approach connected with real
industrial conditions. Especially for widely spread
substances like nitrogen organic compounds, which are
of strategic importance for industry, this integration is
urgent.
The essence and purpose of integration
: An industry-
integrated methodology for teaching nitrogen
compounds includes the following:
•
Using
real
industrial
technologies,
production processes, and technical equipment in the
educational process;
•
Developing
students’
readiness
for
production,
understanding,
and
evaluating
technological processes;
•
Developing creative thinking through
studying innovative approaches in production.
The importance of nitrogen compounds in
Uzbekistan’s industry
Sectors:
Applications
of
nitrogen
compounds:
Examples of local industry
Chemical industry
Fertilizers
(urea,
ammonium
nitrate)
Navoiyazot
Joint
Stock
Company
Pharmaceuticals
Antibiotics,
analgesics,
sulfanilamides
Fargonaazot
Textile and dyes
Nitro dyes, azo dyes
Jurabek Laboratories
Explosive
materials
TNT, nitroglycerin, ammonium
nitrate
Nobel
Pharmaceutical
Industry
Nitrogen Compounds constitute an important part of
Uzbe
kistan’s export potential. According to reports
from 2023, the export of urea fertilizers alone
exceeded 170 million USD.
Results Achieved Through Integration with Industry:
1.
Students learn to apply theoretical
knowledge in practical situations.
2.
Career readiness improves: students
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observe real professional activities during internships.
3.
Innovative
thinking
develops:
technological innovations from the industry are
introduced into education.
4.
A bridge is established between science
and production: continuous communication arises
between
universities, factories,
and
research
institutions.
International Experience:
In Germany, the "Dual Education" system allows
students to spend part of the week at an enterprise and
part at the university.
In South Korea, STEM fields are integrated with
industrial laboratories; companies like Samsung and LG
directly provide grants to universities.
In Russia, the “Universi
ty
–
Factory
–
Technopark”
model organizes laboratories based on production (for
example, at Mendeleyev University of Chemical
Technology).
Integration
Initiatives
Being
Implemented
in
Uzbekistan:
The "Integration of Chemical Education and Industry"
project has been carried out by the Ministry of Higher
Education since 2022.
At the Tashkent Chemical-Technological Institute
(TCTI), practical training bases have been organized at
enterprises such as Navoiyazot and Maxam-Chirchiq
for
students
in
the
“Industrial
Chemistry”
specialization.
For pedagogical fields, professional laboratories and
chemistry classrooms have been reconstructed and
equipped with modern tools.
The
industry-integrated
methodology
provides
students not only with knowledge but also with
competencies necessary in real life. Through this
approach, students gain deep answers not only about
the structure and reactions of nitrogen compounds but
also about how they are produced, how they are used,
and what problems they solve.
Methodology
for
Teaching
Nitrogen
Organic
Compounds Based on an Integrated Approach:
Using an integrated approach to teach nitrogen organic
compounds develops not only theoretical knowledge
but also practical skills used in real industrial
conditions. The methods and techniques, which play a
significant role in this approach, help develop students’
thinking systems.
Role of the Integrated Methodology in the Teaching
Process:
The integrated methodology for teaching nitrogen
organic compounds aims at the following main goals:
•
Linking theoretical knowledge with
practice: students apply their knowledge of chemistry,
biology, ecology, and technology to real industrial
processes. Learning nitrogen organic compounds
occurs not only in the laboratory classroom but is also
connected to real industrial conditions.
•
Applying innovative approaches: students
are prepared for modern production by introducing
new technologies and innovations used in scientific
research and industry.
•
Developing creative thinking: students
gain the ability to propose new approaches and
innovative solutions for solving industrial problems.
This develops their creativity and problem-solving
skills.
Methodological Approaches:
•
Teaching based on project work and
practice: students carry out various laboratory works,
observe real production processes, and develop
projects based on industrial research. For example,
practical training in cooperation with the Navoiyazot
enterprise allows students to see the production
process of compounds firsthand.
•
Use of advanced technologies in the
educational process: students analyze the structure
and reactions of nitrogen organic compounds using
computer simulations and molecular modeling
software such as ChemDraw and Gaussian, which
enable the creation of 3D molecular models and
simulation of their reactions.
•
Working in experimental and industrial
laboratories: students learn specific real tasks related
to the synthesis and analysis of nitrogen organic
compounds in industrial laboratories. Knowledge of
production processes and technologies becomes
practically relevant. An example is the production of
nitrogen fertilizers and pharmaceutical compounds in
specialized chemical laboratories (e.g., at the Tashkent
Chemical-Technological Institute).
Development of Practical Skills in Students:
Integration with industry in teaching nitrogen organic
compounds involves educating students about
industrial technologies, such as the production
processes of the nitrogen industry, pharmaceutical
companies, or nitro dyes in the textile industry. This, in
turn, provides students with practical skills relevant to
industry.
Simulation and Laboratory Work: After studying the
theoretical part of nitrogen organic compounds,
students must be given the opportunity to work in
practice to synthesize, analyze, and understand the
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mechanisms of reactions. Laboratory work also helps
develop students' abilities to use software, perform
statistical analysis, and present technical results.
Advantages of Integrating Methodological Approaches:
•
Rapid and effective learning: Students
quickly absorb knowledge by studying real and
practical examples during the learning process and
learn to apply the acquired theory in everyday life.
•
Preparedness for real life: When students
start their careers, they are ready to solve real
industrial problems and work with industrial
technologies.
•
High motivation: Direct connections with
industry foster high motivation in students toward
their fields, encouraging them to apply their knowledge
in practice.
The integrated approach teaches students not only the
theoretical aspects of nitrogen organic compounds but
also their practical application. Through this approach,
students develop problem-solving skills and become
specialists ready for industry.
Educational Materials and Methodologies: Effective
Approaches to Teaching Nitrogen Organic Compounds.
Choosing effective educational materials and
methodologies during the process of teaching nitrogen
organic compounds plays an important role in students'
knowledge acquisition. This process helps students not
only master theoretical knowledge but also develop
practical
skills.
Educational
materials
and
methodologies should be based on innovative
approaches so that students can apply an active and
interactive approach in learning nitrogen organic
compounds.
Educational Materials: Theoretical and Practical
Foundations. The following educational materials and
resources are essential for studying nitrogen organic
compounds:
1.
Textbooks and manuals: Textbooks
provide fundamental knowledge for students. These
textbooks include theoretical information about
nitrogen organic compounds, their synthesis,
reactions, and applications. For example, the textbook
"Nitrogen Compounds and Their Reactions" is a
primary educational resource for students.
2.
Interactive educational materials: Using
electronic resources and online learning platforms is
effective. Simulations, video lessons, and virtual
laboratories help apply visual and interactive methods
in teaching nitrogen organic compounds. This enables
students to create, study, and test nitrogen compounds
with the help of a computer.
3.
Scientific and technical articles: Recent
scientific research and articles can be important
sources for students in studying nitrogen organic
compounds. Journals such as Agroinnovation,
Chemistry and Chemical Technology, and the "Journal
of Natural Sciences" contain information on
innovations and new approaches related to nitrogen
compounds.
4.
Materials
related
to
industrial
technologies: To teach industrial practices, it is
necessary to study production processes, eliminate
technological
errors,
and
analyze
technical
documentation. For instance, technical documents
related to the enterpr
ises Navoiyazot and Farg‘onaazot
help students better understand production processes
and technologies.
Methodologies: Encouraging Active Learning in
Students
Methodological approaches in teaching nitrogen
organic compounds serve to motivate students to be
active, encourage scientific inquiry, and develop
practical skills. Effective methodologies may include:
1.
Constructivist Approach: According to the
constructivist approach, students create knowledge
based on their own experiences. In studying nitrogen
organic compounds, this methodology encourages
students to think independently, conduct experiments,
and analyze the obtained results. For example, when
students study the synthesis of urea or ammonia, they
may develop these processes themselves.
2.
Project-Based Learning: During the study
of nitrogen compounds, it is necessary to create
projects aimed at solving real-life problems for
students. For example, students may work on projects
related to the production of nitrogen fertilizers or the
creation of pharmaceutical nitrogen compounds. This
method helps students acquire practical knowledge
and apply it to industrial problems.
3.
Laboratory Work and Experiments:
Laboratory work and experimental methods are of
great importance for students. Performing real
chemical reactions, analyzing results, and evaluating
them from a scientific perspective provide valuable
experience. During laboratory work, students
familiarize themselves with production technologies
and industrial processes.
Effective Use of Educational Materials
The effective use of educational materials in teaching
nitrogen-containing
organic
compounds
is
implemented as follows:
1.
Development of curricula and modular
systems: Educational materials should be divided into
several modules, each of which includes both
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International Journal of Pedagogics (ISSN: 2771-2281)
theoretical and practical knowledge. For example, the
first module presents nitrogen compounds and their
general concepts, while the second module provides
information about their industrial applications.
2.
Establishing practical training and industry
connections: It is necessary to organize practical
training and establish industry connections for
students. This allows learners to study real industrial
processes firsthand.
Effective educational materials and methodologies in
teaching nitrogen-containing organic compounds not
only help students acquire knowledge but also provide
them with practical skills. These methods develop
students' critical thinking, innovative approaches, and
readiness for industrial practices.
Innovative Pedagogical Technologies in Teaching
Nitrogen-Containing Organic Compounds
In the process of studying nitrogen-containing organic
compounds, innovative pedagogical technologies serve
to teach students scientific research, practical skills,
and creative processes. These technologies not only
increase students’ motivation but also help develop
their scientific and practical activities. Modern
pedagogical technologies aim to transform the
educational process, organize effective teaching, and
facilitate students' learning processes.
Importance of Innovative Pedagogical Technologies
Innovative pedagogical technologies create new forms
of learning and encourage students to participate more
actively in the learning process. In teaching nitrogen-
containing organic compounds, these technologies
offer the following advantages:
•
Increasing
activity:
Innovative
technologies stimulate students’ engagement and
independent thinking.
•
Interactive teaching: Modern teaching
methods, such as simulations and laboratory work,
create opportunities for students to exchange ideas
and apply knowledge in practice.
•
Developing
creativity:
Innovative
technologies encourage students to create and find
new approaches.
Methods of Applying Innovative Technologies in
Teaching Nitrogen-Containing Organic Compounds
Simulations and virtual laboratories: Simulations and
virtual laboratories can be effective tools in studying
nitrogen-containing organic compounds. For instance,
students can model reactions on computers and test
them. Using software like ChemSketch and ChemDraw,
students can create molecular structures and simulate
them. These technologies help learners visualize
chemical processes and accelerate the learning
process.
Online learning platforms: The use of online learning
platforms is also important in teaching nitrogen-
containing organic compounds. Platforms such as
Moodle, Google Classroom, and Edmodo allow
students to reinforce their knowledge through lessons,
tests, laboratory work, and forums. This enables
students to attend classes on time and from any
location, thereby increasing the efficiency of education.
Flipped Classroom: Using the flipped classroom
technology
in
teaching
nitrogenous
organic
compounds can be effective. This method involves
students studying the lesson materials beforehand and
then engaging in group work, discussions, and practical
exercises during class based on the acquired
knowledge. For example, students learn about the
synthesis of nitrogenous compounds on their own and
then study their practical application during the lesson.
This approach helps activate students and promotes
deeper understanding of the material.
Gamification (Use of Game Elements): Gamification is
one of the innovative pedagogical technologies that
makes the learning process interesting and interactive
for students. In teaching nitrogenous organic
compounds, students can learn through various games,
such as chemical reaction-solving games. This creates
motivation through rewards, points, or medals to
achieve goals. Gamification encourages students to
learn and helps strengthen their knowledge.
Webinars and Distance Learning: Webinars and
distance learning are widely used in integrating
innovative technologies into education. In teaching
nitrogenous organic compounds, webinars provide
opportunities for communication with experts and
specialists from industry. This enables students to
acquire new knowledge, observe practical exercises,
and study real industrial examples.
Integration of Innovative Technologies with Industry in
Teaching Nitrogenous Organic Compounds
Integrating innovative technologies with industry plays
a crucial role in teaching nitrogenous organic
compounds. Students are given opportunities to study
real industrial production processes and apply the
relevant technologies in practice. The following
technologies effectively facilitate this process:
•
Collaboration Between Industry and
Universities:
Through cooperation with industrial enterprises,
students can learn the production processes of
nitrogenous organic compounds. For example,
internships organized at enterprises such as Navoiyazot
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and Fa
rg‘onaazot encourage students to participate in
industrial processes.
•
Real Experience and Research:
To solve real problems in industry, it is necessary to
organize scientific research and laboratory work for
students. For instance, students gain close access to
industry for conducting practical experiments related
to nitrogenous fertilizer production processes.
•
Introduction of Technological Innovations
and New Approaches:
Applying new technologies and innovative approaches
in teaching nitrogenous organic compounds is
important for students. This process allows learners to
apply theoretical knowledge in practice.
Innovative pedagogical technologies make the teaching
process of nitrogenous organic compounds efficient
and engaging. These technologies activate students,
develop practical skills, and encourage scientific
research. Their integration with industry creates
opportunities for students to gain real experience and
improve practical competencies.
The importance of studying nitrogenous organic
compounds lies in their chemical structure, properties,
and reactions, which have great significance for science
and industry. Learning these compounds can be
challenging for students due to the complexity of
understanding their chemical structure and reactions.
However, this knowledge is applied not only in
chemistry but also in biotechnology, pharmaceuticals,
ecology, and other industrial sectors.
Problems in the Teaching Process
Several problems arise in teaching nitrogenous organic
compounds, including poor assimilation of theoretical
knowledge, lack of laboratory facilities, insufficient
methodological preparation of teachers, and low
student motivation. To effectively address these issues,
it is necessary to apply modern methods, expand
resources, and establish active cooperation with
students.
Importance of Interdisciplinary Approach
It is essential to use an interdisciplinary approach in
teaching nitrogenous organic compounds. Combining
knowledge from chemistry, biology, physics, and
mathematics allows students to develop a deeper
understanding. This approach also fosters problem-
solving and logical thinking skills.
Recommendations
Implementation of Interactive and Innovative
Methods:
Applying interactive learning methods such as
collaborative
learning,
online
courses, virtual
laboratories,
and
simulations
increases
the
effectiveness of the educational process. Such methods
facilitate easier acquisition of new knowledge and
make learning more engaging.
Improvement of Laboratory Conditions:
Expanding resources and equipping laboratories with
modern equipment is necessary for laboratory work.
Improved lab conditions allow students to observe
chemical reactions in real-time and apply their
knowledge in practice.
Enhancement of Teacher Qualifications:
Improving teachers’ methodological preparation,
applying
modern
pedagogical
methods,
and
introducing
new
educational
materials
and
technologies are crucial. Additionally, organizing
training and seminars for teachers on effective
educational management helps in working more
effectively with students.
Strengthening the Motivation System:
Developing a motivation system to increase students’
interest in studying is important. Rewards, grants,
competitive projects, and additional incentives for
laborator
y work enhance students’ motivation.
Strengthening Cooperation with Industry:
Enhancing collaboration with industry helps students
gain practical experience. Involving students in
integrated projects with industrial enterprises prepares
them to solve real-world problems and demonstrates
the practical significance of the knowledge acquired.
To effectively solve the problems arising in the teaching
process of nitrogenous organic compounds, it is
necessary to apply modern pedagogical methods,
improve laborator
y conditions, enhance teachers’
qualifications, and motivate students. These methods,
along with strengthening cooperation with industry,
help make the educational process more efficient.
REFERENCES
Qurbonov M., Berdimurodov M.
–
Organik kimyo.
–
Toshk
ent: “O‘qituvchi”, 2020. –
640 bet.
Tursunov B.T.
–
Organik kimyo kursi.
–
Toshkent: “Fan
va texnologiya”, 2018. –
528 bet.
Sharipova
Z.M.
–
Kimyo
fanidan
pedagogik
texnologiyalar.
–
Toshkent, 2019
4.“O‘zbekistonda
kimyo
ta’limining
zamonaviy
yo‘nalishlari” –
“O‘zbekiston kimyo jurnali”, 2021, №2.
N. Islomova, A. Usmonov
–
“Fanlararo integratsiya
orqali kimyo o‘qitish samaradorligini oshirish” –
“Pedagogika va innovatsiyalar”, 2022, №3.
A.
Karimov
–
“Kimyo
ta’limida
virtual
laboratoriyalardan fo
ydalanish” –
“Ta’limda raqamli
International Journal of Pedagogics
235
https://theusajournals.com/index.php/ijp
International Journal of Pedagogics (ISSN: 2771-2281)
transformatsiya” jurnali, 2023, №1.
Solomons T.W.G., Fryhle C.B.
–
Organic Chemistry, 12th
ed.
–
Wiley, 2016.
Smith J.G.
–
Organic Chemistry, 6th ed.
–
McGraw-Hill
Education, 2020.
Journal of Chemical Education (ACS Publications)
–
maqolalar, 2021
–
2023 yillar.
“O‘zkimyosanoat”
AJ
rasmiy
hisobotlari
–
www.uzkimyosanoat.uz
11.Samarqand “NavoiyAzot” AJ faoliyati va ishlab
chiqarish jarayonlari haqida ochiq ma’lumotlar –
2022-
yilgi sanoat tahlillari.
12.O‘zbekiston
Re
spublikasi
Kimyo
sanoatini
rivojlantirish strategiyasi 2020
–
2030
–
Innovatsion
rivojlanish vazirligi sayti (mininnovation.uz).
13.O‘zbekiston Respublikasi Prezidentining qarori PQ–
2909-son
–
“Oliy ta’lim tizimini yanada rivojlantirish
chora-
tadbirlari to‘g‘risida” –
2017-yil.
14.Vazirlar Mahkamasining qarori №187
-son
–
“Kasb
-
hunar va oliy ta’limda fanlararo yondashuvni tatbiq
etish to‘g‘risida” –
2021-yil.
15.Oliy ta’lim, fan va innovatsiyalar vazirligi buyrug‘i
№275 –
“Ta’limda sanoat bilan integratsiyani
kuchaytirish bo‘yicha tavsiyalar” –
2022-yil.
