Authors

  • Latif Burxonov
  • Salim Ibragimov

DOI:

https://doi.org/10.71337/inlibrary.uz.science-research.134868

Keywords:

water meter mechanical meter turbine-type meter electromagnetic meter ultrasonic meter water consumption measurement flow meter.

Abstract

This article provides a comprehensive overview of the types of water meters and their operating principles. The article analyzes the design features, measurement principles, and technical indicators of mechanical (vane and turbine), electromagnetic, ultrasonic, vortex, and other modern meters. For each type, a working scheme, real photos, and examples of practical application are provided. Special attention is also paid to the differences between meters based on traditional and digital technologies, their advantages and limitations, and installation and maintenance requirements.

background image

ISSN:

2181-3906

2025

International scientific journal

«MODERN

SCIENCE

АND RESEARCH»

VOLUME 4 / ISSUE 8 / UIF:8.2 / MODERNSCIENCE.UZ

310

TYPES OF WATER METERS AND THEIR OPERATING PRINCIPLES

Burxonov Latif Mirzoyevich

Samarkand branch of the National Metrology Institute of Uzbekistan.

Ibragimov Salim Safarovich

Bukhara State University.

https://doi.org/10.5281/zenodo.16929356

Annotation.

This article provides a comprehensive overview of the types of water meters

and their operating principles. The article analyzes the design features, measurement principles,
and technical indicators of mechanical (vane and turbine), electromagnetic, ultrasonic, vortex,
and other modern meters. For each type, a working scheme, real photos, and examples of
practical application are provided. Special attention is also paid to the differences between
meters based on traditional and digital technologies, their advantages and limitations, and
installation and maintenance requirements.

Keywords:

water meter, mechanical meter, turbine-type meter, electromagnetic meter,

ultrasonic meter, water consumption measurement, flow meter.


Water is one of the most necessary resources in human life. Its economical use and

accounting are of great importance in modern society. Especially in the field of public utilities,
accurate measurement of water consumption is an integral part of the energy and resource
management system. Special devices used to calculate water consumption are called water
meters. With their help, it is possible to determine the amount of water consumption, make
calculations transparent, and increase the culture of water use.

General structure of water meters
A water meter is a device that measures the volume of water passing through water pipes.
It mainly consists of the following main parts:
The housing is the outer part of the device and protects the internal mechanisms.
The measuring mechanism is an element that rotates or moves in accordance with the

water flow.

The indicator panel shows the measurement results (mechanical or electronic display).
The circuit and connecting parts are used to connect the water meter to the pipe system.

Figure 1. General diagram of a water meter

Types of water meters
Water meters are divided into several types according to their operating principle,

measurement method and design.

Mechanical (vane and turbine) meters


background image

ISSN:

2181-3906

2025

International scientific journal

«MODERN

SCIENCE

АND RESEARCH»

VOLUME 4 / ISSUE 8 / UIF:8.2 / MODERNSCIENCE.UZ

311

These types of meters use the mechanical energy of the water flow. The water flow

rotates the vane or turbine elements, which are converted into readings by the counting
mechanism.

Advantages: Cheap, easy to install, convenient maintenance.
Disadvantages: Mechanical parts wear out, quickly fail in dirty water.

Figure 2. Schematic diagram of a turbine-type mechanical water meter

Electromagnetic meters
These devices are based on Faraday's law of electromagnetic induction. Flowing water

passes through a magnetic field and generates an electric voltage proportional to the flow rate.

The sensors measure this voltage and calculate the water consumption.
Advantages: No mechanical parts, high accuracy.
Disadvantages: High cost, complicated installation and adjustment.
Ultrasonic meters
The measurement is based on the time it takes for ultrasonic signals to be sent and

received. The speed of ultrasonic signals in the water flow changes, and this change is used to
calculate the consumption.

Advantages: Very accurate measurement, no mechanical parts.
Disadvantages: Expensive and complex device.
Vortex meters
This type of meter creates an obstacle in the water flow and analyzes the eddies that form.
The frequency of the eddies depends on the speed of the water and is read by the counting

mechanism.

Principles of operation
Each type works on the basis of its own physical law:
Mechanical - conversion of flow energy into mechanical rotation.
Electromagnetic - generation of voltage from the interaction of flow velocity and

magnetic field.

Ultrasonic - determination of the difference in the time of sound waves moving in the

direction of flow or against it.

Vortex - calculation of the frequency of eddies in the flow.
Practical application
Water meters are widely used in the following areas:
Housing and communal services
Industrial enterprises


background image

ISSN:

2181-3906

2025

International scientific journal

«MODERN

SCIENCE

АND RESEARCH»

VOLUME 4 / ISSUE 8 / UIF:8.2 / MODERNSCIENCE.UZ

312

Agricultural irrigation systems
Monitoring of water resources

Figure 3. Photo of a real water meter

Water meters are of great importance in the rational use of water resources, accurate

measurement of their consumption and transparent accounting. In various sectors - in public
utilities, industry, agriculture and infrastructure systems - the correct selection of water meters
not only increases technical efficiency, but also directly contributes to economic efficiency. Each
type of meter has its own measuring principle, technical characteristics and application
conditions, and when choosing them, the physicochemical properties of water, installation
location and service capabilities should be taken into account. Modern technologies - remote
reading systems, digital monitoring and smart meters - make it possible to manage water
consumption more conveniently, quickly and accurately. Thus, the scientific selection and
effective use of water meters is a sustainable and economically viable solution to water resource
management.

REFERENCES

1.

C.C.

Ибрагимов

,

Ж

.

Р

.

Кодиров

,

С

.

Ш

.

Хакимова

.

Исследование усовершенствованной

сушилки фруктов и выбор поверхностей, образующих явление естественной
конвекции.

// Вестник науки и образования, (2020) № 20 (98),

C 6-9.

2.

С.С. Ибрагимов. Определение геометрических размеров теплицы и способы подбора
материалов.//
Молодой ученый, (2016) C 105

-107.

3.

С.С. Ибрагимов. Проектирование двухскатной теплицы с эффективным
использованием солнечного излучения./
/ Молодой ученый, (2016) C 103

-105.

4.

С.С. Ибрагимов, А.А. Маликов. Исследование теплового режима инсоляционных
пассивных систем.//
Молодой ученый, (2017) C 27

-29.

5.

С.С. Ибрагимов. Результаты лабораторной модели сушки фруктов.// Молодой
ученый, (2016) C 79

-80.

6.

С.С. Ибрагимов. Результаты испытания водоопреснителя парникового типа

.//

Молодой ученый, (2016) C 67

-69.


background image

ISSN:

2181-3906

2025

International scientific journal

«MODERN

SCIENCE

АND RESEARCH»

VOLUME 4 / ISSUE 8 / UIF:8.2 / MODERNSCIENCE.UZ

313

7.

Ш.М. Мирзаев, Ж.Р. Кодиров, С.С. Ибрагимов. Способ и методы определения форм
и размеров элементов солнечной сушилки.//
Альтернативная энергетика и экология

(ISJAEE), (2021) C 30-39.

8.

Sh.M. Mirzaev, J.R. Kodirov, S.S. Ibragimov. Method and methods for determining shapes
and sizes of solar dryer elements.//
Scientific-technical journal 4 (4), (2021) C 68-75.

9.

С.С. Ибрагимов. Выбор поверхностей, ускоряющих естественную конвекцию в
фруктосушилках, путем проведения опытов.//
Молодой ученый, (2017)

C 66-67.

10.

У.Ф. Тураева, Ш.Ф. Тураев, С.С. Ибрагимов. Определение излучательной
способности стационарным методом.//
Молодой ученый, (2013)

C 83-86.

11.

Ш.М. Мирзаев, С.С. Ибрагимов. Исследование стадии и периодов процесса сушки
винограда на солнечной сушилке и выбор технологии сушки.//

Scientific-technical

journal (STJ FerPI,

ФарПИ

ИТЖ

,

НТЖ

ФерПИ, 2022, T.26, №6).

12.

U.Kh. Ibragimov, Sh.M. Mirzaev, O.H. Uzokov, S.S. Ibragimov. Mathematical modeling
and numerical study of the heat transfer process in a heat pipe.//
International Journal of
Science and Research Archive 15 (1), 1446-1454.

13.

SH. Mirzayev, S. Ibragimov, J. Kodirov, S. Khamraev.

МОДЕРНИЗАЦИЯ

СОЛНЕЧНОЙ СУШИЛЬНОЙ УСТАНОВКИ НЕПРЯМОГО ДЕЙСТВИЯ С
ЕСТЕСТВЕННОЙ ВЕНТИЛЯЦИЕЙ ВОЗДУХА

.// Innovatsion texnologiyalar

(2024/12/30) 55 (03).

14.

С.

Ибрагимов,

Ш.

Мирзаев,

Б.

Раджабов.

ИСТОРИЯ

РАЗВИТИЯ

ВИНОГРАДАРСТВА

В

УЗБЕКИСТАНЕ.//

Международная

конференция

академических наук 3 (6),

C 8-12 (2024).

15.

J. Jumaev, S. Ibragimov, SH. Mirzaev. Modeling of the process of solar drying of grapes in
indirect type installations with natural air convection.//
Journal of Physics: Conference
Series 2573 (1), 012043 (2023).

16.

B. Razhabov, S. Ibragimov. HEAT AND MASS EXCHANGE IN A GREENHOUSE
SUNNY DESIGNER WITH A TWO ROOF ISOLED TRIANGLE.//

Zbiór artykułów

naukowych recenzowanych., 198.

References

C.C. Ибрагимов, Ж.Р. Кодиров, С.Ш. Хакимова. Исследование усовершенствованной сушилки фруктов и выбор поверхностей, образующих явление естественной конвекции. // Вестник науки и образования, (2020) № 20 (98), C 6-9.

С.С. Ибрагимов. Определение геометрических размеров теплицы и способы подбора материалов.// Молодой ученый, (2016) C 105-107.

С.С. Ибрагимов. Проектирование двухскатной теплицы с эффективным использованием солнечного излучения.// Молодой ученый, (2016) C 103-105.

С.С. Ибрагимов, А.А. Маликов. Исследование теплового режима инсоляционных пассивных систем.// Молодой ученый, (2017) C 27-29.

С.С. Ибрагимов. Результаты лабораторной модели сушки фруктов.// Молодой ученый, (2016) C 79-80.

С.С. Ибрагимов. Результаты испытания водоопреснителя парникового типа.// Молодой ученый, (2016) C 67-69.

Ш.М. Мирзаев, Ж.Р. Кодиров, С.С. Ибрагимов. Способ и методы определения форм и размеров элементов солнечной сушилки.// Альтернативная энергетика и экология (ISJAEE), (2021) C 30-39.

Sh.M. Mirzaev, J.R. Kodirov, S.S. Ibragimov. Method and methods for determining shapes and sizes of solar dryer elements.// Scientific-technical journal 4 (4), (2021) C 68-75.

С.С. Ибрагимов. Выбор поверхностей, ускоряющих естественную конвекцию в фруктосушилках, путем проведения опытов.// Молодой ученый, (2017) C 66-67.

У.Ф. Тураева, Ш.Ф. Тураев, С.С. Ибрагимов. Определение излучательной способности стационарным методом.// Молодой ученый, (2013) C 83-86.

Ш.М. Мирзаев, С.С. Ибрагимов. Исследование стадии и периодов процесса сушки винограда на солнечной сушилке и выбор технологии сушки.// Scientific-technical journal (STJ FerPI, ФарПИ ИТЖ, НТЖ ФерПИ, 2022, T.26, №6).

U.Kh. Ibragimov, Sh.M. Mirzaev, O.H. Uzokov, S.S. Ibragimov. Mathematical modeling and numerical study of the heat transfer process in a heat pipe.// International Journal of Science and Research Archive 15 (1), 1446-1454.

SH. Mirzayev, S. Ibragimov, J. Kodirov, S. Khamraev. МОДЕРНИЗАЦИЯ СОЛНЕЧНОЙ СУШИЛЬНОЙ УСТАНОВКИ НЕПРЯМОГО ДЕЙСТВИЯ С ЕСТЕСТВЕННОЙ ВЕНТИЛЯЦИЕЙ ВОЗДУХА.// Innovatsion texnologiyalar (2024/12/30) 55 (03).

С. Ибрагимов, Ш. Мирзаев, Б. Раджабов. ИСТОРИЯ РАЗВИТИЯ ВИНОГРАДАРСТВА В УЗБЕКИСТАНЕ.// Международная конференция академических наук 3 (6), C 8-12 (2024).

J. Jumaev, S. Ibragimov, SH. Mirzaev. Modeling of the process of solar drying of grapes in indirect type installations with natural air convection.// Journal of Physics: Conference Series 2573 (1), 012043 (2023).

B. Razhabov, S. Ibragimov. HEAT AND MASS EXCHANGE IN A GREENHOUSE SUNNY DESIGNER WITH A TWO ROOF ISOLED TRIANGLE.// Zbiór artykułów naukowych recenzowanych., 198.