Authors

  • Nishonova G‘Azaloy G‘Ulomjonovna
    Fergana Polytechnic Institute, Uzbekistan

DOI:

https://doi.org/10.71337/inlibrary.uz.ijasr.130835

Keywords:

Conveyor belt abrasive friction decay vulcanization rollers

Abstract

In this article, recommendations for ensuring the long-term operation of the belt conveyor belt.


background image

Volume 02 Issue 11-2022

44



International Journal of Advance Scientific Research
(ISSN

2750-1396)

VOLUME

02

I

SSUE

11

Pages:

44-49

SJIF

I

MPACT

FACTOR

(2021:

5.478

)

(2022:

5.636

)

METADATA

IF

7.356
















































A

BSTRACT

In this article, recommendations for ensuring the long-term operation of the belt conveyor belt.

K

EYWORDS

Conveyor, belt, abrasive, friction, decay, rivet nail, vulcanization, rollers.

I

NTRODUCTION

Belt conveyors are widely used in the chemical
industry and construction materials production
enterprises. Depending on several factors such as
the size of the transported load, belt tension,
speed, and friction generated during the work
process, the belt, which is the main working part
of the conveyor, becomes unusable before the
deadline [1-4]. The moving working part (tape)
slides on the support surface that holds it, and the

fallen pieces of scattered loads transported to
these surfaces take part in the friction process
and form an abrasive environment. As a result, as
a result of the abrasive friction between the
surfaces of the tape and the support rollers, the
tape bends and microcracks appear in the tape [5-
9].

The main part

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

METHODS OF INCREASING THE DURATION OF THE BELT,
WHICH IS THE MAIN BODY OF BELT CONVEYORS


Submission Date:

November 05, 2022,

Accepted Date:

November 10, 2022,

Published Date:

November 20, 2022

Crossref doi:

https://doi.org/10.37547/ijasr-02-11-07


Nishonova G

‘Azaloy

G

‘Ulomjonovna

Fergana Polytechnic Institute, Uzbekistan


background image

Volume 02 Issue 11-2022

45



International Journal of Advance Scientific Research
(ISSN

2750-1396)

VOLUME

02

I

SSUE

11

Pages:

44-49

SJIF

I

MPACT

FACTOR

(2021:

5.478

)

(2022:

5.636

)

METADATA

IF

7.356















































Abrasive wear, i.e., wears caused by the friction of
the transported raw material with the tape, over
time, micro-cracks cause the failure of the tapes.

Abrasiveness means that the load transported in
the work process erodes the surfaces of the
equipment in contact with it [10-14].

Table 1. Groups of scattered loads by particle size

The name of the group

The largest dimensions of pieces
(mm)

A separate large piece

up to 500

Large piece

500

Medium piece

350

Small pieces

80

Granular lumpy

6

Powdery

0.5

Dusty

less than a

Loads are divided into 4 groups according to the
level of abrasiveness: A - non-abrasive, V - low
abrasive, C - medium abrasive, and D - high
abrasive. Coke, coke, agglomerate, and recycled
agglomerate are highly abrasive. Quartz sand,
ferrous and non-ferrous metal ores and their
concentrates have low abrasiveness. The
presence of large links of limestone in
agglomerate is a factor determining its chemical
aggressiveness. In conveyors transporting such
loads, roller supports and metal structures wear
significantly faster [13-15]. The moisture content
of 4-6% of cargo reduces dust generation during
transportation. Increased humidity reduces the
spreadability of the load and clogs the funnel part
of the loaders. The stability of the load is
characterized by the coefficient of stability.

(1)

here: - strength limit of the sample under a
compression load, (MPa).

Clumping is the loss of mobility of loose (clay, salt,
cement) loads during long-term storage.

Viscosity is the ability to change loose loads (clay,
boron) into solids (especially in wet conditions).

A description of the most common scattered loads
is given in Appendix 1.

Currently, the production enterprise, the method
of connecting with rivets is used in the repair of
bent or broken tapes.


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Volume 02 Issue 11-2022

46



International Journal of Advance Scientific Research
(ISSN

2750-1396)

VOLUME

02

I

SSUE

11

Pages:

44-49

SJIF

I

MPACT

FACTOR

(2021:

5.478

)

(2022:

5.636

)

METADATA

IF

7.356















































Figure 1. Rivet nail method

In this method, the connecting parts of the tape
are fastened to each other with superimposed
rods. This causes raw materials to spill as a result
of shaking of the tape when the rivet nails collide
with the roller and drum surfaces when the
conveyor moves, and accelerates the bending of
the rivet nail, rollers and drum surfaces. As a
result, the service life of the conveyor is reduced.

In order to increase the service life of belt
conveyors and other working parts that wear out
due to friction, it is advisable to use the method of
restoring broken tapes.

As a result of vulcanization, it is glued with raw
rubber layer by layer after heating. It is cut and
prepared as shown in Fig.

Figure 2. Vulcanization method


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Volume 02 Issue 11-2022

47



International Journal of Advance Scientific Research
(ISSN

2750-1396)

VOLUME

02

I

SSUE

11

Pages:

44-49

SJIF

I

MPACT

FACTOR

(2021:

5.478

)

(2022:

5.636

)

METADATA

IF

7.356















































The two ends of the connecting tape and the two
ends of the patch tape are cut in accordance with
each other as shown in the picture. Each surface
is vulcanized with specially produced adhesives
for patching cord materials.

The tape repaired in this way increases the life of
the tape, and also increases the life of the rollers
and drums.

Belt conveyors require constant monitoring of
belt tension and working conditions, with
particular attention to belt connections.

In order to ensure the long-term operation of the
tape, it is necessary to ensure the following:

a)

load the transported goods only after the

movement of the tape is stabilized;

b)

stop the transported cargo only after it is

completely filled with tape material;

c)

elimination of the possibility of mineral

oils entering the tape;

d)

to monitor the wear of the rubber tape

passing through the load-cleaning shovels (the
tape is not squeezed by the shovels with a metal
div);

e)

timely replacement of non-rotating

support rollers;

f)

making timely decisions to prevent the

tape from moving to different sides during
movement.

The movement of the tape in different directions
is caused by factors such as skewing of the

tensioning drum, installation in the wrong
position or the error of locking in relation to the
central axis, the incorrect connection of the ends
of the tape, the appearance of separations in the
seams and layers of the tape along one side of the
drum.

C

ONCLUSION

As a temporary measure to prevent the tape from
moving in different directions, it is recommended
to install several support rollers on the wrong
side of the tape that deviates from its direction.
Usually, self-aligning support rollers in such
transport devices are the means to eliminate the
errors of the transverse movement of the tape.

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background image

Volume 02 Issue 11-2022

48



International Journal of Advance Scientific Research
(ISSN

2750-1396)

VOLUME

02

I

SSUE

11

Pages:

44-49

SJIF

I

MPACT

FACTOR

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METADATA

IF

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Э.

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(2021).

Антикоррозионные композиционные


background image

Volume 02 Issue 11-2022

49



International Journal of Advance Scientific Research
(ISSN

2750-1396)

VOLUME

02

I

SSUE

11

Pages:

44-49

SJIF

I

MPACT

FACTOR

(2021:

5.478

)

(2022:

5.636

)

METADATA

IF

7.356















































силикатные материалы для защиты
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химической

промышленности.

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References

Abduqodirov, N. S. O., Oqyolov, K. R. O., Jalilova, G. X. Q., & Nishonova, G. G. (2021). Causes and extinguishing equipment of vibrations occurred by machinery and mechanisms. Scientific progress, 2(2), 950-953.

Oqyo, K. R. O. G. L., Abduqodirov, N. S. O. G. L., O‘G‘Li, A. T. L., & G‘Azaloy, G. (2021). Mashina va mexanizmlarning ish jarayonida vujutga kelgan vibratsiya sabablari va so’ndirish qurilmalari. Scientific progress, 2(6), 576-579.

Turaevich, T. T., Anvarxodjaevich, B. Y., & Mirodilovich, M. B. (2021). Choosing the Optimal Processing Method to Improve the Productivity of Machine Tools and Machine Systems. International Journal of Multicultural and Multireligious Understanding, 8(5), 490-494.

Маткаримов, Ш. А., Зияев, А. Т., Тожибоев, Б. Т., & Кучкаров, Б. У. (2020). Покрытие задвижек и запорной арматуры тепловых сетей жидким теплоизоляционным покрытием. Universum: технические науки, (12-5 (81)), 36-38.

Тураев, Т. Т., Батиров, Я. А., & Мадаминов, Б. М. (2021). Повышение эффективности разделения листовых материалов за счет снижения времени приработки инструмента. Universum: технические науки, (3-1 (84)), 70-73.

Обичаев, И. В. Ў., Абдуқодиров, Н. Ш. Ў., & Oқйўлов, К. Р. Ў. (2021). Котель ва бошқа оловли технологиялар учун нефт шламларни тоза ёқилғи сифатида қўллаш. Scientific progress, 2(6), 918-925.

Abduqodirov, N. S. O. G. L., Oqyo’Lov, K. R. O. G., & Jalilova, G. X. Q. (2021). Paxta xomashyosini quritish va tozalash. Scientific progress, 2(1), 857-861.

Abducodirov, N., & Okyulov, K. (2021). Improvement of drum dryer design. Экономика и социум, (4-1), 13-16.

Нишонова, Ғ. Ғ., & Жалилова, Г. Х. Қ. (2021). Материал қатламини сақлаш учун сарфланган қувват ҳисоби. Scientific progress, 2(6), 166-170.

Рахмонов, А. Т. У., & Ахтамбаев, С. С. (2021). Причины вибрации в станках и методы их устранения. Scientific progress, 2(6), 89-97.

Qo’Chqarov, B. U. B., & O’G’Li, A. T. L. (2021). Mashinasozlikda metall kesish dastgohlarining mexanik ishlov jarayonida vujudga keladigan vibratsiya sabablari va uni bartaraf etish muammolari. Scientific progress, 2(6), 905-909.

Ziyayev, A. T., & Nishonova, G. A. G. (2021). Mashina detallarining ishdan chiqish sabablarini aniqlash va ushbu detallarning kimyoviy-termik ishlov berish ahamiyati. Oriental renaissance: Innovative, educational, natural and social sciences, 1(10), 136-142.

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Мадаминов, Б. М., Юлчиева, С. Б., Негматова, К. С., Кучкаров, У. К., Рубидинов, Ш. Г. У., Негматов, С. С., ... & Мамуров, Э. Т. (2021). Антикоррозионные композиционные силикатные материалы для защиты оборудований химической промышленности. Universum: технические науки, (10-3 (91)), 61-66.