Authors

  • G. Narimonova

Author Biography

  • G. Narimonova

    Department of Russian Language, Namangan State University, Namangan, Uzbekistan

DOI:

https://doi.org/10.71337/inlibrary.uz.mead.116409

Keywords:

non-linguistic (non-philological) higher education institutions Russian as a foreign language teaching methodology technologies method.

Abstract

This article examines the methodology of teaching Russian as a foreign language in non-philological educational institutions. A comprehensive analysis of scientific and methodological literature has been conducted. In order to generalize accumulated theoretical and practical experience and apply it to optimize the educational process, questions related to the application of general teaching methods, text analysis and its typology, reading instruction, the teaching of academic oral speech, and new computer technologies have been considered and substantiated.


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METHODOLOGY OF TEACHING RUSSIAN LANGUAGE

IN INSTITUTIONS OF HIGHER EDUCATION

G. Narimonova,

Department of Russian Language, Namangan State University,

Namangan, Uzbekistan

Abstract. This article examines the methodology of teaching Russian as a

foreign language in non-philological educational institutions. A comprehensive

analysis of scientific and methodological literature has been conducted. In order to

generalize accumulated theoretical and practical experience and apply it to optimize

the educational process, questions related to the application of general teaching

methods, text analysis and its typology, reading instruction, the teaching of academic

oral speech, and new computer technologies have been considered and substantiated.

Keywords: non-linguistic (non-philological) higher education institutions,

Russian as a foreign language, teaching methodology, technologies, method.

Methodology is both a theoretical and applied science, in which the teacher’s

expertise and the ability to adapt general methodological recommendations to specific

teaching conditions always play a significant role.

In non-linguistic higher education institutions, Russian as an academic subject

is perceived not as a system to be described, but as a means of communication in both

written and oral forms. Therefore, for this category of students, the methodology sets

the task of studying Russian for participation in language communication—in other

words, the goal is to develop the students’ communicative competence in Russian:

reading, speaking, listening, and writing.

Currently, in all non-philological institutions of higher education, Russian is

taught as a foreign language. For international students enrolled in preparatory

faculties as well as for future professionals—bachelor’s, master’s, and doctoral


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students, as well as interns—Russian, like other general education subjects, is

considered mandatory.

Undoubtedly, the methodology of teaching Russian as a foreign language has

become one of the main directions in non-linguistic higher education institutions. This

is occurring for several reasons.

The scientific and methodological literature presents several main approaches

to the methodology of teaching Russian as a foreign language to students of non-

philological universities. These include:

- the general methodology of teaching Russian as a foreign language in non-

philological universities;

- the study and analysis of texts, their structure, and their unity with text

typology;

- the study of oral scientific and printed language;

- the process of teaching reading;

- new computer technologies.

Let us focus on the history of the application of teaching methodologies for

students in non-philological universities.

In the 1970s, one of the foundational works on this topic was O.D.

Mitrofanova’s book “The Scientific Style of Speech: Problems of Development.”

This work addressed both the linguistic and methodological foundations of teaching

Russian as a foreign language.

The book also provides answers to the following questions: when to begin

specialized instruction; which types of texts to use—general scientific, popular

scientific, or highly specialized; what role terminological vocabulary plays; and

which system of exercises should be implemented to maximize the effectiveness of

instruction. The features of the scientific style of speech, its lexical composition, as

well as the morphological and syntactic characteristics of scientific language, are

described in detail, and a typology of texts is presented.

Let us highlight several rules that, in our view, remain especially relevant

today. O.D. Mitrofanova emphasizes that Russian is a compulsory, yet not a core


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subject in any non-philological university, since the main purpose of education should

be “the formation of qualified specialists with a broad scientific outlook, sufficient

knowledge, and an understanding of reality.” According to the author, the primary

objective of instruction is understanding practical rules and applying the language in

communicative practice.

A new stage in the development of the theory of teaching students in non-

philological higher education is represented by E.I. Motina’s work, “Language and

Specialty: Linguistic and Methodological Foundations for Teaching Russian to Non-

Philologists.” This scholarly work is devoted to the issue of developing the linguistic

foundations of non-philological students. The researcher considers it advisable to

organize the process of teaching students the language of their specialty based on the

linguistic material of the disciplines they are studying.

We fully agree with the author’s view that “teaching the language of a

specialty should be based on material from a specific field of scientific knowledge,

and this material should be presented exactly as it is realized within that branch of

science.” At the same time, E.I. Motina emphasizes that the Russian language

instructor should not merely follow the lead of the subject teacher or work solely with

materials already covered in specialized classes. Instead, it is necessary to analyze

examples of texts for each core subject and work directly with those texts.

In this context, a new question arises for researchers and methodologists: what

characteristics should a typical specialized text possess? The answer can be found in

L.P. Klobukova’s work “Teaching the Language of Specialization,” where the text

serves as the highest unit of such education. The author asserts that it is justified to

use any type of text at any stage of instruction. When creating a text, the following

features must be taken into account: “the functional-semantic type of the text; the

main theme presented and the perspective from which it is addressed; the topic and

problems explored in the text; the text’s affiliation with a particular functional-

stylistic register; the speech form (oral or written); the mode of text presentation; the

number of communicators involved in creating the text; the text genre; the structure

and content of the text; and the level at which the text is perceived.”


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With the emergence of textbooks and teaching materials oriented toward

Russian as a foreign language, the question arises regarding the place and role of

instructional vocabulary in the overall process of language learning or in the

sublanguage of a particular specialty. T.I. Trubnikova proposes a system for

describing the sublanguages of specializations, characterizes methods for using such

dictionaries to study the lexical and grammatical features of specialized sublanguages

and to develop various types of speech activity, and also establishes criteria for

constructing Russian vocabulary based on specialized terminology. The researcher

notes that “specialized instructional vocabulary is compiled by Russian language

instructors together with subject-matter specialists, under the general methodological

guidance of Russian language experts. A specialized instructional dictionary should

combine the features of both an encyclopedic and an explanatory dictionary, with a

thematic organization of the content.”

In our view, a specialized instructional dictionary is not merely a useful

resource, but an essential tool in the preparation of future specialists. Students of non-

philological institutions must regularly consult such a dictionary to clarify specialized

terms or new words at any stage of their studies. Therefore, the criteria for compiling

a specialized dictionary—based on the selection of linguistic units—are important

issues within the methodology of teaching Russian as a foreign language.

Teaching Russian oral scientific speech to non-philological students is just as

important as teaching written speech and has been discussed by methodologists and

researchers since the 1990s. In particular, T.G. Kopytkova proposed a methodology

for teaching dialogic communication to students of non-philological universities. To

implement her approach, the author developed a system of exercises: conditionally

communicative, non-communicative, and fully communicative. Given that the

conditions of the tasks should elicit not only specific verbal responses from students

but also the ability to engage in communication and adapt to a group or unfamiliar

environment, the author created a set of exercises aimed at developing dialogic

communication skills.


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It is worth noting that at the present stage, the training of specialists in non-

linguistic higher education institutions has become more pragmatic. Students have a

clear understanding of their level of proficiency in Russian and know exactly where

they can apply their professional knowledge and how essential this knowledge is for

them.

The practical outcomes of this approach include the emergence of a language

learning environment in universities and institutes (including e-learning); the

development of electronic courses, virtual lessons, in-person and distance learning

courses, teleconferences, webinars, and electronic collections of educational texts; as

well as the initial development of multimedia educational and methodological

complexes, comprehensive textbooks on linguistics and regional studies, and more.

Today, priority in teaching Russian as a foreign language is given to

intelligent technologies (Smart Education). Researchers are interested in issues such

as the development of intelligent textbooks for Russian as a foreign language, the

possibilities of using mobile technologies in Russian language instruction, and the

web-quest as a form of organizing students’ independent work.

Thus, the use of computer technologies is currently not only a necessary but

also a mandatory component of the language education process in non-philological

universities.

All the aforementioned aspects and directions in teaching Russian as a foreign

language in non-philological universities attest to the considerable scientific and

methodological experience accumulated in this field. However, at present, significant

changes are taking place, connected with the emergence of new student contingents,

reduction of classroom hours, the presence of students of different ages in study

groups, the increase in the number of groups, and new communicative needs of

learners. Accordingly, new aspects are emerging in the application of methods,

principles, and educational resources in teaching Russian as a foreign language.

In any case, instructors working in non-philological universities must rely on

accumulated scientific and pedagogical experience and continue searching for new


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content-related, organizational, and linguistic-methodological solutions to optimize

the educational process.

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U.I. Erkaboev, R.G. Rakhimov, J.I. Mirzaev, U.M. Negmatov, N.A. Sayidov.

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density of states in two-dimensional semiconductor materials // Indian Journal of

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64.

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65.

U.I. Erkaboev, R.G. Rakhimov. Simulation of temperature dependence of

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U.I. Erkaboev, R.G. Rakhimov, N.Y. Azimova. Determination of oscillations

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R. Rakhimov, U. Erkaboev. Modeling the influence of temperature on electron

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U.I. Erkaboev, R.G. Rakhimov. Determination of the dependence of transverse

electrical conductivity and magnetoresistance oscillations on temperature in

heterostructures based on quantum wells // e-Journal of Surface Science and

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72.

У.И. Эркабоев, Р.Г. Рахимов, Ж.И. Мирзаев, Н.А. Сайидов, У.М.

Негматов. Вычисление осцилляции плотности энергетический состояний в

гетеронаноструктурных материалах при наличии продольного и поперечного

сильного магнитного поля // Научные основы использования информационных

технологий нового уровня и современные проблемы автоматизации : I

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U.I. Erkaboev, R.G. Rakhimov. Oscillations of transverse magnetoresistance

in the conduction band of quantum wells at different temperatures and magnetic fields

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электронов и дырок в разрешенной зоны квантовой ямы при воздействии

поперечного квантующего магнитного поля // Научные основы использования

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U.I. Erkaboev, R.G. Rakhimov, J.I. Mirzaev, N.A. Sayidov, U.M. Negmatov.

Calculation of oscillations of the density of energy states in heteronanostructured

materials in the presence of a longitudinal and transverse strong magnetic field //

International conferences “Scientific foundations of the use of new level information

technologies and modern problems of automation. 2022. pp.341-344

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U.I. Erkaboev, R.G. Rakhimov, J.I. Mirzaev, N.A. Sayidov, U.M. Negmatov.

Calculations of the temperature dependence of the energy spectrum of electrons and

holes in the allowed zone of a quantum well under the influence of a transverse

quantizing magnetic field // International conferences “Scientific foundations of the

use of new level information technologies and modern problems of automation. 2022.

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77.

R.G. Rakhimov, U.I. Erkaboev. Modeling of Shubnikov-de Haase oscillations

in narrow-band semiconductors under the influence of temperature and microwave

fields // Scientific Bulletin of Namangan State University. 2022. Vol. 4, Iss.4, pp.242-

246.

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R.G. Rakhimov. The advantages of innovative and pedagogical approaches in

the education system // Scientific-technical journal of NamIET. Vol. 5, Iss. 3, pp.292-

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Р.Г. Рахимов, У.И. Эркабоев. Моделирование осцилляций Шубникова-де

Гааза в узкозонных полупроводниках под действием температуры и СВЧ поля

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U.I. Erkaboev, R.G. Rakhimov, J.I. Mirzaev, N.A. Sayidov, U.M. Negmatov.

Modeling the Temperature Dependence of Shubnikov-De Haas Oscillations in Light-

Induced Nanostructured Semiconductors // East European Journal of Physics. 2024.

Iss. 1, pp. 485-492.

81.

M. Dadamirzaev, U. Erkaboev, N. Sharibaev, R. Rakhimov. Simulation the

effects of temperature and magnetic field on the density of surface states in

semiconductor heterostructures // Iranian Journal of Physics Research. 2024

82.

U.I. Erkaboev, N.Yu. Sharibaev, M.G. Dadamirzaev, R.G. Rakhimov. Effect

of temperature and magnetic field on the density of surface states in semiconductor

heterostructures // e-Prime-Advances in Electrical Engineering, Electronics and

Energy. 2024. Vol.10, Article ID 100815.

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U.I. Erkaboev, Sh.A. Ruzaliev, R.G. Rakhimov, N.A. Sayidov. Modeling

Temperature Dependence of The Combined Density of States in Heterostructures

with Quantum Wells Under the Influence of a Quantizing Magnetic Field // East

European Journal of Physics. 2024. Iss.3, pp.270-277.

84.

U.I. Erkaboev, N.Yu. Sharibaev, M.G. Dadamirzaev, R.G. Rakhimov.

Modeling influence of temperature and magnetic field on the density of surface states

in semiconductor structures // Indian Journal of Physics. 2024.

85.

U.I. Erkaboev, G. Gulyamov, M. Dadamirzaev, R.G. Rakhimov, J.I. Mirzaev,

N.A. Sayidov, U.M. Negmatov. The influence of light on transverse

magnetoresistance oscillations in low-dimensional semiconductor structures // Indian

Journal of Physics. 2024.

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Р.Г. Рахимов. Моделирование температурно-зависимости осцилляции

поперечного магнитосопротивления и электропроводности в гетероструктурах

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N. Sharibaev, A. Jabborov, R. Rakhimov, Sh. Korabayev, R. Sapayev. A new

method for digital processing cardio signals using the wavelet function // BIO Web

of Conferences. 2024. Vol. 130, Article ID 04008.


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A.M. Sultanov, E.K. Yusupov, R.G. Rakhimov. Investigation of the Influence

of Technological Factors on High-Voltage p

0

–n

0

Junctions Based on GaAs // Journal

of Nano- and Electronic Physics. 2024. Vol. 16, Iss. 2, Article ID 01006.

89.

U.I. Erkaboev, R.G. Rakhimov, J.I. Mirzaev, N.A. Sayidov, U.M. Negmatov.

Influence of temperature and light on magnetoresistance and electrical conductivity

oscillations in quantum well heterostructured semiconductors // Romanian Journal of

Physics. 2024. Vol. 69, pp.610

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У.И. Эркабоев, Р.Г. Рахимов, Ж.И. Мирзаев, Н.А. Сайидов, У.М.

Негматов, С.И. Гайратов. Влияние температуры на осцилляции поперечного

магнитосопротивления в низкоразмерных полупроводниковых структурах //

Namangan davlat universiteti Ilmiy axborotnomasi. 2023. Iss. 8, pp.40-48.

91.

U. Erkaboev, N. Sayidov, R. Raximov, U. Negmatov, J. Mirzaev. Kvant o ‘rali

geterostrukturalarda kombinatsiyalangan holatlar zichligiga magnit maydon va

haroratning ta’siri // Namangan davlat universiteti Ilmiy axborotnomasi. 2023. Iss. 6,

pp.16-22

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У.И. Эркабоев, Р.Г. Рахимов. Вычисление температурной зависимости

поперечной электропроводности в квантовых ямах при воздействии

квантующего магнитного поля // II- Международной конференции

«Фундаментальные и прикладные проблемы физики полупроводников, микро-

и наноэлектроники». Ташкент, 27-28 октября 2023 г. стр.66-68.

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R.G.Rakhimov. Simulation of the temperature dependence of the oscillation of

magnetosistivity in nanosized semiconductor structures under the exposure to

external fields // Web of Technology: Multidimensional Research Journal. 2024.

Vol.2, Iss.11, pp.209-221