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Original Paper

UDC 622.673 © S. Gylymuly, Zh.A. Tiagalieva, O.V. Belyankina, A.M. Belyaev, 2022

ISSN 0041-5790 (Print) • ISSN 2412-8333 (Online) • Ugol’ – Russian Coal Journal, 2022, № 10, pp. 50-54

DOI: http://dx.doi.org/10.18796/0041-5790-2022-10-50-54

Title

DEVELOPING A SIMULATION MODEL FOR BRAKING A MINE HOIST IN THE MATLAB SOFTWARE

Authors

Gylymuly S.1, Tiagalieva Zh.A.1, Belyankina O.V.1, Belyaev A.M.1

1National University of Science and Technology ”MISIS” (NUST ”MISIS”), Moscow, 119049, Russian Federation

Authors information

Gylymuly S., Postgraduate, e-mail:m1606832@edu.misis.ru

Tiagalieva Zh.A., Postgraduate, e-mail:m1707439@edu.misis.ru

Belyankina O.V., Associate Professor, e-mail:belyankina.ov@misis.ru

Belyaev A.M., Postgraduate, e-mail:al.m.belyaev@ya.ru

Abstract

Upgrading of mine hoists can be achieved through introduction of the rubber and steel ropes to replace the traditional steel wire ropes. This will improve the operational parameters of the mine hoists, reduce the size of the hoisting machines and increase the service life of the traction devices.

At the same time, the design parameters of the main hoist components will change significantly. This paper presents a simulation model of braking a mine hoist that was developed in the Matlab software. It allows the estimation of kinematic and force parameters when braking the hoisting machine, which can be used in designing new hoisting units.

Keywords

Mining, Mine winder, Rubber and steel ropes, Simulation, Mathematical model, Safety brake, Mine hoist.

References

1. Voznesensky A. S. & Kidima-Mbombi L. K. Formation of synthetic structures and textures of rocks when simulating in COMSOL Multiphysics. Gornye nauki i tekhnologii, 2021, Vol. 6, (2), pp. 65–72. (In Russ.).

2. Kaung P.A., Zotov V.V., Gadzhiev M.A., Artemov S.I. & Gireev I.A. Formalization of selection procedure of mineral mining technologies. Gornyj informatsionno-analyticheskij bulleten, 2022, (2), pp. 124-138. (In Russ.).

3. Gubanov S., Petsyk A. & Komissarov A. Simulation of stresses and contact surface sof disk rolling cutters with the rock when sinking in mixed soils. E3S Web of Conferences 18, Ekaterinburg, 2020, p. 03008.

4. Muminov R.O., Rayhanova G.E. & Kuziev D.A. Experimental research and analysis of a quarry drilling rig. Ugol’, 2021, (5), pp. 32-36. (In Russ.). DOI: 10.18796/0041-5790-2021-5-32-36.

5. Klement'eva I.N. & Kuziev D.A. Аctual status and prospects for future development of surface miners, designed for forblastless lit-by-lit excavation of solid rock. Gornyj informatsionno-analyticheskij bulleten,2019, (2), pp. 123-128. (In Russ.).

6. Kobylkin S.S., Timchenko A.N. & Kobylkin A.S. Use of computer simulation in the selection of operating parameters for the dust extractor built into the roadheader. Bezopasnost' truda v promyshlennosti, 2021, (3), pp. 21-27. (In Russ.).

7. Melnik V.V., Sukharkov I.N. & Khazhiev V.A. Organization of competitive technical service of ensuring operability of the mining-transport equipment. Ugol’, 2019, (6), pp. 10-14. (In Russ.). DOI: 10.18796/0041-5790-2019-6-10-14.

8. Nuss S.V. & Trifanov M.G. Establishing monitoring of operational parameters of key elements of shaft hoisting installations. Aktual'nye problem povysheniya effektivnosti i bezopasnost iekspluatatsii gornoshakhtnogo I neftepromyslovogo oborudovaniya, 2019, (1), pp. 32-36. (In Russ.).

9. IlinS. R., Samusya V.I., Kolosov D.L., Ilina I.S. & Ilina S.S. Risk-forming dynamic processes in unitsof mine hoistsof verticals hafts. Науковий вiсник нацiонально гогiрничого унiверситету, 2018, (5), pp. 64-71.

10. Kurochkin A., Vagin V., Karpesh A. & Dyorina N. Control system for electrohydraulic drive of a mobile sinking hoisting plant. MATEC web of conferences: 2018 international conference on modern trends in manufacturing technologies and equipment, ICMTMTE 2018, Sevastopol, EDP Sciences, 2018, P. 02009.

11. Kubrin S.S., Mosievsky A.A., Zakorshmenny I.M., Reshetnyak S.N. & Maksimenko Yu.M. Ways to improve the energy efficiency of underground electric networks of high-performance coal mines. Ugol’, 2022, (2), pp. 4-9. (In Russ.). DOI: 10.18796/0041-5790-2022-2-4-9.

12. Reshetnyak S., Maksimenko Yu. & Zakharova A. Investigation of the electric drive system of the lifting unit with parallel coordinate correction. E3S Web of Conferences: VIth International Innovative Mining Symposium, Kemerovo: EDP Sciences, 2021, P. 03028.

13. Trifanov G.D., Knyazev A.A., Filatov A.P. & Laschuk V.V. Operational experience of mine lifting installations equipped with continuous monitoring systems. Bezopasnost’ truda v promyshlennosti, 2019, (6), pp. 52-58. (In Russ.).

14. Perekutnev V.E. & Zotov V.V. Modeling drive wheels of hoisting machines with rubber cables. Gornyj informatsionno-analyticheskij bulleten, 2020, (6), pp. 105-114. (In Russ.).

15. Perekutnev V.E. & Zotov V.V. Comparative assessment of rubber steel cables for vertical mine hoists. Gornyj informatsionno-analyticheskij bulleten,2020, (7), pp. 85-93. (In Russ.).

16. Gylymuly S., Kantovich L.I., Tiagalieva Z.A. & Belyankina O.V. Digital model of brake plinth of mine hoist with rubber cable pulling equipment. Gornyj informatsionno-analyticheskij bulleten, 2022. (6), pp.62-76. (In Russ.).

17. Dmitrieva V.V., Sobyanin A.A. & Sizin P.E. Modeling soft start of belt conveyor induction motor. Gornyj informatsionno-analyticheskij bulleten, 2022, (6), pp. 77-92. (In Russ.).

18. Dmitrieva V.V., Avkhadiev I.F. & Sizin P.E. Use of advance hardware/software in multiple conveyor system automation. Gornyj informatsionno-analyticheskij bulleten, 2021, (2), pp. 150-163. (In Russ.).

For citation

Gylymuly S., Tiagalieva Zh.A., Belyankina O.V. & Belyaev A.M. Developing a simulation model for braking a mine hoist in the Matlab software. Ugol’, 2022, (10), pp. 50-54. (In Russ.). DOI: 10.18796/0041- 5790-2022-10-50-54.

Paper info

Received June28, 2022

Reviewed July 20, 2022

Accepted September 26, 2022

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