Kiriya R. V., Monastyrsky V. F., Mishchenko T. F., Energy effectiveness increasing for mine conveyer transport systems

 

Geoteh. meh. 2016, 131, 183-201

 ENERGY EFFECTIVENESS INCREASING FOR MINE CONVEYER TRANSPORT SYSTEMS

 1Kiriya R. V., 1Monastyrsky V. F., 1Mishchenko T. F.

1IGTM NAS of Ukraine

UDC 622.647.2:62-50 

Abstract. The paper is devoted to problems of energy effectiveness working (EEW) increasing for conveyor transport systems (CTS) with complicate structures. The CTS, as usual, have a lot of conveyors. The EEW is decreased and caused by conveyor stoppages and discontinuities drift freight flows. In other words, productivity is decreased and energy expenditures for coal transportation are increased. One of the ways to EEW increasing for CTS with complicate structures is freight flow control with accumulate bunkers (AB) and belt conveyor velocity control with controldevices and frequency conversions. The adaptive CTS control is developed. It allow to increase the capacity and decrease the freight flows energy expenditures. Therefor conveyor transport system have two level hierarchic control systems. In first level control operator defines the conveyor velocity and feeders. In second level control bunker conversions define maximum set freight values for AB. Global target function for optimization the system is complex value and is equal to specific transport power accumulation and power quantifies which is needed for one ton coal transportation. Local target functions for system optimization are average minimal values coal volumes in CTS for AB. 
Keywords: adaptive control system, complex target functions, energy effectiveness working, energy expenditures, complicate structure conveyor system.

REFERENCES

1. Monastyrsky, V.F., Maksyutenko, V.Yu, Kiriya, R.V. and Mishchenko, T.F. (2010), “The methodology of adaptive conveyor transport management”, Geo-Technical Mechanics, no. 91, pp. 245–254.
2. Belov, M.P., Novikov, V.A. and Rassudov, L.,N. (2004), Avtomatizirovannyy elektroprivod tipovykh proizvodstvennykh mekhanizmov i tekhnologicheskikh kompleksov [Automatic electric drives for industry machinery and technological complexes], Akademiya, Moscow, Russia.
3. “Engineering for the modern underground conveyor transport” (2009), Glyukauf, no. 3. pp. 50–51.
4. Terekhov, V.M. and Osipov, O.I. (2006), Sistemy upravleniya elektroprivodov [Control systems of electric drives], Akademiya, Moscow, Russia.
5. Kiriya, R.V. and Braginets, D.D (2012), “Coal mine conveyor transport systems bunker control”, Zbirnyk naukovykh prats Natsionalnogо girnychogo universytetu, no. 37, pp. 230–236.
6. Kiriya, R.V. and Mishchenko, T.F. (2015), “Capacity and energy expenditure for bulk material conveyor mine transport”, Zbirnyk naukovykh prats Natsionalnogо girnychogo universytetu, no. 46, pp. 96–104.
7. Kiriya, R.V. (2014), “Determination of energy efficiency systems underground conveyor transport of coal mines”, Geo-Technical Mechanics, no. 119, pp. 125–135.
8. Galkin, V.I., Dmitriev, V.G. and Dyachenko, V.P. (2005), Sovremennaya teoriya lentochnykh konveyerov gornykh predpriyatiy [Modern theory of belt conveyers for mining enterprises], MGGU, Moscow, Russia.
9. Kiriya, R.V., Mishchenko, T.F. and Babenko, Yu.V. (2012), “Mathematical model of functioning of heat-sink bunker in the mode of maintenance in him of volume of load in the set limits”, Naukovi visti. Suchasni problemy metalurgii, no. 15, pp. 85–96.
10. Kiriya, R.V. and Mishchenko, T.F. (2015), “Determination of average volume of load in a heat-sink bunker working in the mode of maintenance in him of volume of load in the set limits”, Zbirnyk naukovykh prats Natsionalnogо girnychogo universytetu, no. 49, pp. 106–115.
11. Kiriya, R.V. and Braginets, D.D. (2011), “Average volume bunker adaptive control for coal mines”, Naukovi visti. Suchasni problemy metalurgii, no. 13, pp. 75–81.
12. Kiriya, R.V. and Babenko, Yu.V. (2015), “Mine conveyor system adaptive control algoritm”, Systemni tekhnolohii. Regionalny mezhvuzivskiy zbirnyk naukovykh prats, no. 4 (99), pp. 10–22.

About the authors:

Kiriya Ruslan Vissarionovich, Candidate of Technical Sciences (Ph.D), Senior Researcher, Head of Department of Mining Transport Physics and Mechanics, M. S. Polyakov Institute of Geotechnical Mechanics under the National Academy of Science of Ukraine (IGTM, NASU), Dnepr, Ukraine, This email address is being protected from spambots. You need JavaScript enabled to view it. .

Monastyrsky Vitaly Fedorovich, Doctor of Technical Sciences (D. Sc), Professor, Senior Researcher in Department of Mining Transport Physics and Mechanics, M. S. Polyakov Institute of Geotechnical Mechanics under the National Academy of Science of Ukraine (IGTM, NASU), Dnepr, Ukraine, This email address is being protected from spambots. You need JavaScript enabled to view it. .

Mishchenko Tamara Fedorovna, Master of Science, Senior Specialist in Department of Mining Transport Physics and Mechanics, M. S. Polyakov Institute of Geotechnical Mechanics under the National Academy of Science of Ukraine (IGTM, NASU), Dnepr, Ukraine, This email address is being protected from spambots. You need JavaScript enabled to view it. .