Stackable tower lifts, selection of equipment for horizontal transportation of rock mass

Authors: Tochilin V. I.

The article is devoted to the analysis of the proposed ways to reduce the volume of opening in the development of poor-commodity and low-volume diamond ore deposits with the introduction of the principles of non-use of the quarry board as a structural element for the placement of transport communications, including the use of armorless structures of non-working boards. The possibility of using cable cranes and built-up tower lifts (NBP) for geotechnology data is shown. In particular, the possibility of using NBP in the refinement of sub-quarry stocks and the installation of several NBPs on the periodically lowered sole of the quarry is shown. At the same time, it is possible to equip part of the NBP with skip lifting units. It is proposed to consider the issue of creating a boom harvester with a hammer rotor. The possibility of using cable cranes is analyzed, taking into account new developments and the introduction of remotely controlled, robotic equipment and, on their basis, unmanned technologies for working in the quarry industry. The possibility of using NBP without drilling and blasting operations in combination with a new inertial-shock method of layer-by-layer destruction of rocks is considered. Calculations of the capacity of the transport bridge for variants of horizontal cyclic movement of the rock mass using a self-propelled trolley and a belt conveyor were carried out. The possibility of providing an annual capacity of a transport bridge of up to 1.1 million is shown. m3/year and the possibility of using a belt conveyor for selective delivery of rock mass at the specified capacity. The expediency of using kinetic energy storage devices in power supply schemes is shown, which will significantly reduce peak loads in the power grid and increase the energy efficiency of the NBP lifting unit and the mechanism for moving a self-propelled trolley.

Keywords: beanless non-working board, refinement of quarry stocks, cable cranes and stackable tower lifts, movement of rock mass.
For citation:

Tochilin V. I. Stackable tower lifts, selection of equipment for horizontal transportation of rock mass. MIAB. Mining Inf. Anal. Bull. 2022;(5—2):101—113. [In Russ]. DOI: 10.25018/0236_1493_2022_52_0_101.

Issue number: 5
Year: 2022
Page number: 101-113
ISBN: 0236-1493
UDK: 622::621.311.004.18(571.56)
DOI: 10.25018/0236_1493_2022_52_0_101
Article receipt date: 29.09.2021
Date of review receipt: 10.03.2022
Date of the editorial board′s decision on the article′s publishing: 10.04.2022
About authors:

Tochilin V. I., mechanical engineer for lifting transport machines and equipment, Deputy Chief Designer,   JSC “Spetstechnomash”, 660050, Russia, Krasnoyarsk, Kutuzov Street, 1, PO Box 1020,

For contacts:

1. Zelberg A. S., Zyryanov V. V., Bondarenko I. F. Modern and promising technologies in the development of diamond deposits. Mining industry.  2019,  no.  3  (145),  pp. 26—31. DOI. ORG/10/30686/1609—9192—2019—3—145—26—31. [In Russ]

2. Tochilin V. I. Increasing tower lifts for the development of kimberlite pipes (initial miming and technological requirements for construction). Mining equipment and electromechanics. 2005, no. 3, pp. 34—37. [In Russ]

3. Tochilin V. I. Selection of lifting and transport equipment for the development of small kimberlite pipes. Modern technologies for the development of mineral resources: sb. materials 7-i Mezhdunarodnaya nauch.-techn. konf. Ed. V. E. Kislyakov. Krasnoyarsk, IPK SFU, 2009, ch. 1, pp. 334—344. [In Russ]

4. Akishev A. N., Bondarenko I. F., Zyryanov I. V. Technological aspects of the development of poor-commodity diamond deposits. Novosibirs,Nauka, 2018, 368 p. [In Russ]

5. Cheban A. Y. Technology of refinement of kimberlitov deposits with the use of a rope system for lifting the mountain mass. Sciences about the Earth and Subsoil Use. 2019, vol. 42, no. 4 (69), pp. 495—501. DOI. ORG/10.21285/2686—9993—2019—42—4—495—501. [In Russ]

6. Yakovlev V. L., Zyryanov I. V., Zhuravlev A. G., Cherepanov V. A. Features of a modern approach to the choice of technological transport for diamond-ore quarries of Yakutia. Physical and technical problems of development of minerals. 2018, no. 6, pp. 109—119. [In Russ]

7. Tochilin V. I.  Working  out  the  under-generational  reserves  of  the  tube «Internatsionalnaya» with the use of aerogeotechnology. MIAB. Mining Inf. Anal. Bull. 1999, no. 5, pp. 197—200. [In Russ]

8. Mind over matter World Mining Frontiers Volume 2 2019 [Electronic resource]. https:// (appeal 21.02.2022).

9. Mi Li Yang, Junqi Zhu and Jichao Geng. Mining Employees Safety and the Application of Information Technology in Coal. Department of Economics and Management, Anhui University of Science and Technology, Huainan, China [Electronic resource]. https:// www. frontiersin. org/articles/10.3389/fpubh.2021.709987/full (accessed 21.02.2022).

10. Palka D., Stecula K. Concept of technology assessment in coal mining. Mining of Sustainable Development IOP Publishing IOP Conf. Series: Earth and Environmental Scienc.2019, vol.261. 012038 e doi:10.1088/1755—1315/261/1/012038 [Electronic resource]. pdf (appeal 32.02.2022).

11. Trubetskoy K. N., Rylnikova M. V., Vlad IOP Publishing iirov D.Ya. From the system «Career» to the new intellectual way of life of open mining. Problems of subsoil use. 2019, no. 3 (22), pp. 39—48. DOI 10.25635/2313—1586—2019—03—039. [In Russ]

12. Vladimirov D. Ya., Klebanov A. F., Kuznetsov I. V. Digital transformation of open mining works and the new generation of quarry technology. Mining industry. 2020, no. 6, pp. 10—12. DOI 10.30686/1609—9192—2020—6—10—12. [In Russ]

13. Zyryanov I. V., Akishev A. N., Bondarenko I. F. et al. Improvement of mining and processing of diamond-containing ores. Monograph. Yakutsk: Publishing House NEFU, 2020, 720 p. [In Russ]

14. Levenson S. Ya., Lantsevich M. A., Gendlina L. I., Akishev A. N. New technology and equipment for non-explosive formation of the working zone of deep quarries. Physical and technical problems of mining minerals. 2016, no. 5, pp. 125—132. [In Russ]

15. Cheban A. Y. Improving the efficiency of working out high yields of quarry with the use of milling machines. Surveying and subsoil use. 2020, no. 1 (105), pp. 10—12. [In Russ]

16. Beglov B. V., Kokh P. I., Onishchenko V. I., Okulov D. P., Ebich R. D., Ziskis A. Y. Most overloaders. Moscow, Mashinostroenie, 1974, 224 p. [In Russ]

17. Amber Kinetics. Stout M. Hawaiian Electric and Amber Kinetics Begin Kinetic Energy Storage Demonstration with Support from Elemental Excelerator. News, Press Releases. Mar 12, 2018 [electron. resource]. amber-kinetics-begin-flywheel-energy-storage-demonstration-with-support -from-elementalexcelerener/ (accessed 21.02.2022).

18. Prof. Dr.-Ing. Keller Günter Flywheel Energy Storage System Deggendorf Institute of Technology Faculty of Electrical Engineering, Media Technology and Computer Science M.Sc. Electrical Engineering and Information Technology Article · March 2019 [electron. resource]. https:// www. researchgate. net/publication/332061263 (accessed 2022—02—21).

19. Kazantsev S. G. Kinematic accumulators: world trends and domestic developments with the use of VTSP-tapes of three peniles. Voprosy elektromekhaniki. Trudy VIIEM. 2016, vol. 155, pp. 3—21. [In Russ]

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