employee
Moscow, Russian Federation
BBK 347 Технология производства оборудования отраслевого назначения
The necessity of improving technological operations in the processing of mineral raw materials and the use of energy-efficient grinding equipment is substantiated. The technical and technological benefits of vertical dynamic autogenous grinding mills are given. They are based on a method of self-grinding of the material, which allows to reduce the specific energy consumption. The technical advantages of the MKAD system mills, the structural schemes of which have an indifferent group are explained. Since the mills of this system additionally use so-called “circulating” energy, depending on the degree of deformation of the drive motor shaft, it is necessary to study the effect of kinematic mismatch of closed-circuit branches on the specific energy consumption of grinding. The graphic dependences of kinematic discrepancy effect on the specific energy consumption of grinding in the MKAD system mills are presented.
mill, energy efficiency, specific energy consumption, block diagram, indifferent groups, closed loop, kinematic discrepancy, kinetic energy, potential energy, circulating energy
1. Khetagurov V.N. Development and design of centrifugal mills of vertical type. Vladikavkaz: Terek, 1999. 225p.
2. Gegelashvili M.V. Theory and Practice of Dynamic Self-Grinding Mills. Vladikavkaz: Terek, 2001, p. 208.
3. Egorov I.N. On the question of the intensification of grinding in a mobile mill. Sb. labor of the international scientific symposium - machine builders and mechanics, 2014, p. 189–193.
4. Pivnyak G.G., Weisberg L.A., Kirichenko V.I., Pilov V.I. Shredding. Energy and technology. M .: Publishing house "Ore and Metals", 2007, 296 p.
5. Subbotin M.F. Analysis of the current state and development prospects of crushing and grinding equipment. West of the Chita State University (Vestnik ChitSU). Chita: ChitSU, 2010. (no. 3 (5)), Pp. 100–105.
6. Revnivtsev V.I., Kapralov E.L., Kostin I.M. and others. In the book: Improving the processes of crushing, grinding, screening and classification of ores and enrichment products. L., Mekhanobr, 1985.
7. Technology of raw materials at a crossroads. Problems and prospects. Per. from English. Ed. B.A. Wils, R.V. Bareya. M .: Nedra, 1992, 272 p.
8. Drovnikov A.N., Ostanovskiy A.A. Creation of a shredder for dynamic self-grinding. // Engineering Bulletin of the Don. Room, 2012, p. 5–6.
9. Drovnikov A.N., Ostanovskiy A.A., Nikitin E.V., Pavlov I.A., Osipenko L.A., Agafonov N.A. The Grinder of Dynamic Self-Grinding Pat. the invention no. 2465960 of the Russian Federation, 5 p.
10. Drovnikov A.N., Ostanovskiy A.A., Maslov E.V., Burkov N.V., Romanenko G.N. Mill. Pat for invention no. 2496581 Russian Federation. 5 p.
11. Pat. for invention №2520008 Russian Federation. IPC B02C13 / 14. From the grinder of the dynamic self-grinding of the material / Drovnikov A.N., Ostanovskiy A.A., Maslov E.V., Rybalchenko A.N .; 2013105689/13; declare 11.02. 2013; Patent holder: South-Russian State University of Economics and Service (FSBEI HPO "YURGUES"), publ. 20.06 2014, Byul. no. 17. 4 p.
12. Drovnikov A.N., Ostanovskiy A.A., Burkov N.V., Maslov E.V. Improvement of dynamic self-grinding shredders. The jubilee international collection of scientific papers dedicated to the 40th anniversary of the department "Machines and equipment for household and residential purposes? 2013, pp. 58–61.
13. Gegelashvnln M.V. Determination of the boundaries of high-speed modes of movement of the material in the MAY dynamic self-grinding mill // Mechanisms and machines of percussion, periodic and vibrational action. Mater, mezhdynar. simp (Eagle, 22-24 Nov. 2000). Eagle OPU. 2000 pp. 245–249.
14. Kraynev A.F. Dictionary-reference mechanisms. 2nd ed., Pererab. and add. M .: Mashinostroenie, 1987, 560 p.
15. Nikitin A.A. The phenomenon of the return of power through the closing kinematic chain. Tr. Dnepropetrovsk Institute of Railroad Tr-ta, vol. 19, Dnipropetrovsk, 1948, pp. 161–239.
16. Ostanovskiy A.A., Drovnikov A.N. Patterns of power transmission to grindable material in the mills of the MKAD system. Science and Education. 2017, no. 5.
17. Drovnikov A.N., Ostanovskiy A.A. Systems of mills of dynamic self-milling of contour type. South-Russian State Polytechnic University (NPI) named after MI Plateau-va. Novocherkassk: YuPGPU (NPI), 2017, 183 p.
18. Ostanovskiy A.A., Osipenko L.A., Drovnikov A.N., Maslov E.V. Comparative analysis of the energy efficiency of vertical mills of dynamic autogenous grinding of the MAYA and MKAD system. Bulletin of BSTU named after V.G. Shukhov, 2018, no. 9, pp. 75–82.
19. Pat. for useful model №175743 RF MPC GOIL 3/24. Stand for measuring power in a closed loop mill dynamic autogenous grinding. Stop A. A., Drovnikov A.N., Rybalchenko N.G., Rybalchenko A.N., Cherkesova E.U.; for-yavl. 12/13/2016, applicant and patent holder Ostanovskiy AA, publ. 05.23.2018 Bul. no. 15.
20. Certificate of state registration of computer program no. 2018661841 “Program for calculating the angle of torsion of the shaft of the electromechanical system of the bench for measuring power in a closed loop of a dynamic self-grinding mill”. Ostanovskiy A.A., Alekhin A.S., Kozyrev P.P., Sherikh V.S .; declare 06/14/2018, the applicant and patentee Don State Technical University (DSTU); Registered on 19.09.2018.
21. Ostanovskiy A.A. Analysis and selection of a rational structural scheme of a vertical mill of dynamic self-grinding. News of higher educational institutions. North Caucasus region. Technical science, 2018. no. 1, pp. 66–73.