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JMS, Vol. 52, No. 4, 2016


S. V. Serdyukov, M. V. Kurlenya, A. V. Patutin, L. A. Rybalkin, and T. V. Shilova

Chinakal Institute of Mining, Siberian Branch, Russian Academy of Sciences,
Krasnyi pr. 54, Novosibirsk, 630091 Russia
e-mail: ss3032@yandex.ru

The article reports the data of a lab test of directional hydraulic fracturing carried out on a block made of organic glass. A fracture across a hole is created by means of additional shearing stress applied to the hole walls within the interval of the fracture. It is found that seismic emission under hydraulic fracturing appears after the fracture completion.

Rock mass, borehole, directional hydraulic fracturing, transverse fracture, seismic emission

DOI: 10.1134/S1062739116040998 

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4. Yaskevich, S.V., Grechka, V.Yu., and Duchkov, A.A., Processing Microseismic Monitoring Data, Considering Seismic Anisotropy of Rocks, J. Min. Sci., 2015, vol. 51, no. 3, pp. 477486.
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6. Azarov, A.V., Kurlenya, M.V., Patutin, A.V., and Serdyukov, S.V., Mathematical Modeling of Stress State of Surrounding Rocks around the Well Subjected to Shearing and Normal Load in Hydraulic Fracturing Zone, J. Min. Sci., 2015, vol. 51, no. 6, pp. 10631069.
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L. A. Nazarova, L. A. Nazarov, and M. I. Protasov

Institute of Integrated Mineral DevelopmentIPKON, Russian Academy of Sciences,
Kryukovskii tupik 4, Moscow, 111020 Russia
e-mail: lanazarova@ngs.ru

The theoretically evaluated multi-disciplinary approach enables determination of stress state of a coalrock mass in the area of coal cutting using a package of geomechanical and geophysical information. The approach is based on successive solutions of two inverse problems in the framework of a geomechanical model: coal-bed tomography and assessment of horizontal components of external stress field. The numerical experiments demonstrate resolvability of the inverse problems given appropriate monitoring system ensures sufficient seismic coverage of a coal-bed in the domain of steep spatial gradients of elastic waves and the presence of regular composition in the frequency range of the order of hundreds of hertz in the sounding signal generated by a cutterloader and/or other coal-face work machinery.

Coalrock mass, 3D geomechanical model, stress field, tomography, inverse problem, objective function, finite element method

DOI: 10.1134/S1062739116041010 

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S. V. Lavrikov and A. F. Revuzhenko

Chinakal Institute of Mining, Siberian Branch, Russian Academy of Sciences,
Krasnyi pr. 54, Novosibirsk, 630091 Russia
e-mail: lvk64@mail.ru

The approach to numerical modeling of specimen loading considered by the authors using the discrete element method enables describing ability of rocks to accumulate and release elastic energy. The model specimen is a package of particles characterized by viscoelastic interaction with dry friction. The outer layer particles are connected by elastic springs. On the whole, the model specimen is an element of a medium capable of accumulating a part of energy of deformation in the form of internal self-balanced stresses. Numerical modeling of the specimen compression is performed, and the accumulated energy is assessed. It is shown that clusters form in the medium, and sliding along the boundaries of these clusters causes discontinuities in deformation curve. Also, the discontinuities are possible under stress relaxation after unitary dynamic effect on the specimen. There is a good agreement between the numerical and experimental results.

Geomaterial, self-balanced stresses, elastic energy accumulation and release, numerical modeling, discrete elements

DOI: 10.1134/S1062739116041022 

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V. N. Aptukov and V. Yu. Mitin

Perm State University,
ul. Bukireva 15, Perm, 614990 Russia
e-mail: aptukov@psu.ru
Ural Research and Development Institute of Halurgy,
ul. Sibirskaya 94, Perm, 614002 Russia

The scope of the studies embraces statistical and mechanical properties of surface of different kind crystals of salt rocks. Fractal dimension, hardness and elasticity moduli of such crystals are determined. The article gives estimates of fracture toughness and wettability of salt rock crystals as function of fractal dimension of the crystal surface microrelief.

Salt rock crystals, fractal dimension, nanoindentation, hardness, elasticity modulus, fracture toughness, wettability

DOI: 10.1134/S1062739116041034 

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5. Aptukov, V.N. and Skachkov, A.P., Assessment of Microchemical Characteristics of Rock Salt, Sylvinite and Carnallite on NanoTest-600 Machine, Vestn. Nizhegorod. Univer., 2011, no. 4 (2), pp. 372374.
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I. V. Kolykhalov, P. A. Martynyuk, and E. N. Sher

Chinakal Institute of Mining, Siberian Branch, Russian Academy of Sciences,
Krasnyi pr. 54, Novosibirsk, 630091 Russia
e-mail: ikolykhalov@mail.ru

Under computational investigation is the process of sequential growth of hydrofractures under conditions of plane strain. The working fluid is perfect and viscous. The authors analyze influence exerted on parameters and trajectories of growing fractures by spacing of the fractures, external compression field, fluid flow rate, fluid viscosity and leakage flow rate.

Multiple-interval hydraulic fracturing, hydrofracture, rock pressure, fluid viscosity, leakage flow rate

DOI: 10.1134/S1062739116041058 

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A. V. Shadrin

Kemerovo State University,
ul. Krasnaya 6, Kemerovo, 650043, Russia
e-mail: ashadr1951@mail.ru

The process of crack propagation in the coal face area is considered as an informative sign of coal and gas outburst hazard. In the known condition of crack growth at a certain distance from a coal face, it is suggested to replace mechanical parameters by geophysical data through application of different evaluation approaches: actual stressesby spectralacoustic method relative to amplitudes of high-frequency and low-frequency components of acoustic signal generated by mining machines in coal face area; pore pressureby analysis of methane concentration in mine air in coal face area; strength of the most folded coal bedby measuring strength based on penetration depth of a steel cone. The author analyzes the influence of acoustic, strength and permeability and porosity properties of coal face area on limit value of geophysical pre-outburst crack propagation criterion.

Outburst hazard index, crack propagation criterion, spectralacoustic method, air-and-gas control equipment, stress state, coal strength characteristics, pore pressure, methane concentration

DOI: 10.1134/S106273911604107X

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5. Mirer, S.V., Khmara, O.I., and Shadrin, A.V., Spektralno-akusticheskii prognoz vybrosoopasnosti ugolnykh plastov (SpectralAcoustic Prediction of Outburst Hazard in Coal Beds), Kemerovo: Kuzassvuzizdat, 1999.
6. Shkuratnik, V.L., Filimonov, Yu.L., and Kuchurin, S.V., Experimental Investigation into Acoustic Emission in Coal Samples under Uniaxail Loading, J. Min Sci., 2004, vol. 40, no. 5 pp. 458464.
7. Federalnye normy i pravila v oblasti promyshlennoi bezopasnosti: Instruktsiya po prognozu dinamicheskikh yavlenii v ugolnykh shakhtakh i monitoringu massiva gornykh porod pri otrabotke ugolnykh mestorozhdenii: proekt (Federal Standards and Regulations on Industrial Safety: Guidelines on Prediction of Dynamic Events in Coal Mines and Monitoring of Rock Mass in Coal Mining: Project), Moscow: IPKON RAN, 2015.
8. Shadrin, A.V. and Zykov, V.S., Akusticheskaya emissiya vybrosoopasnykh plastov: obzornaya informatsiya (Acoustic Emission in Outburst-Hazardous Seams: Review), Moscow: TsNIEIugo, 1991.
9. Greshnikov, V.A. and Drobot, Yu.V., Akusticheskaya emissiya. Primenenie dlya ispytanii materialov i izdelii (Acoustic Emission. Application to Test Materials and Products), Moscow: Izd. Standartov, 1976.
10. Ammosov, I.I. and Eremin, I.V., Treshchinovatost uglei (Jointing of Coal), Moscow: AN SSSR, 1960.
11. Petukhov, I.M. and Linkov, A.M., Mekhanika gornykh udarov i vyrbosov (Rockburst and Outburst Mechanics), Moscow: Nedra, 1983.
12. Moskalev, A.N., Vasilev, L.M., and Mlodetsky, V.R., Limiting Equilibrium of Cracks in a Coal Seam into Which Liquid is Injected, J. Min. Sci., 1979, vol. 15, no. 5, pp. 504508.
13. Shtumf, G.G., Egorov, P.V., Petrov, A.I., et al., Gornoe davlenie v podgotovitelnykh vyrabotkakh ugolnykh shakht (Rock Pressure in development Roadways in Coal Mines), Moscow: Nedra, 1996.
14. Shadrin, A.V., Egorov, P.V., and Trusov, S.E., Outburst Hazard Criteria Developed and Used in Coal Mines in Kuzbass, Vestn. KuzGTU, 2003, no. 4, pp. 1420.
15. Instruktsiya po bezopasnomu vedeniyu gornykh rabot na plastakh, opasnykh po vnezapnym vybrosam uglya, porody i gaza (RD 05–350–00). Preduprezhdenie gazodinamicheskikh yavlenii v ugolnykh shakhtakh: sb. dokumentov (Guidelines on Safe Mining in Rock, Cola and Gas Outburst-Hazardous Beds. Prevention of Gas-Dynamic Events in Coal Mines: Source-Book), Moscow: NTTs Bezopas. Prom. Gosgortekhnadzor Rossii, 2000.
16. Rzhevsky, V.V. and Novik, G.Ya., Osnovy fiziki gornykh porod (Principles of Physics of Rocks), Moscow: Nedra, 1978.
17. Zykov, V.S., Lebedev, A.V., and Surkov, A.V., Preduprezhdenie gazodinamicheskikh yavlenii pri provedenii vyrabotok po ugolnym plastam (Prevention of Gas-Dynamic Events in In-Seam Driving), Kemerovo: KRO AGN, 1997.
18. Shadrin, A.V. and Degtyareva, M.V., Factors That Govern Crack Growth in Coal Beds, Vestn. Nauch. Tsentra Bezop. Rabot v Ugoln. Prom., 2013, no. 11, pp. 127132.
19. Feit, G.N., Prochnostnye svoistva i ustoichivost vybrosoopasnykh ugolnykh plastov (Strength Characteristics and Stability of Outburst-Hazardous Coal Beds), Moscow: Nauka, 1966.
20. Slesarev, V.D., Mekhanika gornykh porod i rudnichnoe kreplenie (Rock Mechanics and Mine Support), Moscow: Ugletekhizdat, 1948.
21. Klein, G.K., Stroitelnaya mekhania sypuchikh tel (Construction Mechanics of Granular Bodies), Moscow: Stroiizdat, 1977.
22. Shadrin, A.V. and Konovalenko, V.A., Principles of Automatic Continuous Monitoring of Gas-Dynamic Events in Coal Mines, in Kuzbass, Vestn. KuzGTU, 2001, no. 3, pp. 2831.
23. Khodot, V.V., Vnezapnye vybrosy uglya i gaza (Coal and Gas Outbursts), Moscow: Gos. Nauch.-Tekh. Izd. Lit. po Gorn. Delu, 1961.

V. V. Seredin and A. S. Khrulev

Perm State University,
ul. Bukireva 15, Perm, 614990 Russia
e-mail: nedra@nedra.perm.ru

Loading causes stress concentration around defects in rocks, which induces initiation and propagation of cracks. Physically, external loading shows itself in rocks as acoustic and electromagnetic emission, included infrared radiation. Experimentally, it is found that in specimens of geomaterials under uniaxial tension, temperature is minimum; under uniaxial compression, temperature grows; under triaxial stress, temperature is maximum. It has been succeeded to derive equations for temperature prediction in a material in the zone of main crack as function of failure load. The method to estimate stress state based on the data on infrared radiation in materials is developed.

Soil stress, critical crack, temperature, uniaxial compression and tension

DOI: 10.1134/S1062739116041081 

1. Seredin, V.V., Leibovich, L.O., Pushkareva, M.V., Kopylov, I.S., and Khrulev, A.S., Evolution of Fracture Surface Morphology in Rocks, J. Min. Sci., 2013, vol. 49, no. 3, pp. 409412.
2. Oparin, V.N., Usoltseva, O.M., Semenov, V.N., and Tsoi, P.A., Evolution of StressStrain State in Structured Rock Specimens under Uniaxial Loading, J. Min. Sci., 2013, vol. 49, no. 5, pp. 677690.
3. Bobryakov, A.P., StickSlip Mechanism in a Granular Medium, J. Min. Sci., 2010, vol. 46, no. 6, pp. 600605.
4. Chikov, B.M., Kargapolov, S.A., and Ushakov, G.D., Experimental StressTransformation of Perknit, Geolog. Geofiz., 1989, no. 6, pp. 7579.
5. Voznesensky, A.S., Ustinov, K.B., and Shkuratnik, V.L., Theoretical Model of Acoustic Emission under Mechanical Loading of Rocks in the Zone of Maximum Compaction, Prikl. Mekh. Tekhn. Fiz., 2006, vol. 47, no. 4, pp. 145152.
6. Voznesensky, A.S., Kutkin, Ya.O., Krasilov, M.N., Interrelation of the Acoustic Q-Factor and Strength in Limestone, J. Min. Sci., 2015, vol. 51, no. 1, pp. 2330.
7. Oparin, V.N., Yakovitskaya, G.E., Vostretsov, A.G., Seryakov, V.M., and Krivetsky, A.V., MechanicalElectromagnetic Transformations in Rocks on Failure, J. Min. Sci., 2013, vol. 49, no. 3, pp. 343356.
8. Seredin, V.V., Analyses of Temperature in Rocks in a Fracture Zone, Fund. Issled., 2014, nos. 912.
9. Sheinin, V.I., Levin, B.V., Motovilov, E.F., Morozov, A.A., and Favorov, A.V., Diagnostic Infrared Radiometry of Quick Periodic Changes of Stresses in Rocks, Fiz. Zemli, 2001, no. 4, pp. 2430.
10. Oparin, V.N., Kiryaeva, T.A., Gavrilov, V.Yu., Shutilov, R.A., Kovchavtsev, A.P., Tanaino, A.S., Efimov, V.P., Astrakhantsev, I.E., and Grenev, I.V., Interaction of Geomechanical and Physicochemical Processes in Kuzbass Coal, J. Min. Sci., 2014, vol. 50, no. 2, 191214.
11. Seredin, V.V., Strength Ratings of Rocks, J. Min. Sci., 1985, no. 2.
12. Seredin, V.V. and Laptev, B.V., USSR Authors Certificate no. 1173244, Byull. Izobret., 1985, no. 30.
13. Molchanov, V.I., Selezneva, O.G., and Osipov, S.L., Mechanical Activation of a Mineral Substance as a Precondition of Stress-Transformations in Lineament Zones, Struktura lineamentnykh zon stress-metaformizma (Structure of Lineament Zones under Stress-Metamorphism), Novosibirsk: Nauka, 1990.
14. Kuksenko, V.S., Makhmudov, Kh.V., Mansurov, V.A., Sultanov, U., and Rustamova, M.Z., J. Min. Sci., 2009, 45: 355. DOI: 10.1007/s10913–009–0044–3.

P. N. Tambovtsev

Chinakal Institute of Mining, Siberian Branch, Russian Academy of Sciences,
Krasnyi pr. 54, Novosibirsk, 630091 Russia
e-mail: tambovskiyp@mail.ru
Novosibirsk State University of Architecture and ConstructionSIBSTRIN,
ul. Leningradskaya 113, Novosibirsk, 630008 Russia

Based on the experimental data on separation of stone blocks from rock mass, the author has developed an approximate analytical model to find energy input required to initiate main crack depending on mechanical properties of rocks, geometry of bench, diameter of drillholes and meterage drilled.

Rock mass, line of drillholes, plastic substance, tool, shock, crack, separation

DOI: 10.1134/S1062739116041093 

.1. Alekseenko, O.P., Designs of Hard Roof Fracturing with Plastic Fluid, Vzaimodeistvie mekhanizirovannykh krepei s bokovymi porodami (Powered Support and Sidewall Interaction, Novosibirsk: IGD SO RAN, 1987.
2. Chernov, O.I. and Kyu, N.G., Rupture of Natural Rocks by Fluids, J. Min. Sci., 1988, vol. 24, no. 6, pp. 560569.
3. Chernov, O.I. and Kyu, N.G., Oriented Rupture of Solids by Highly Viscous Fluid, J. Min. Sci., 1996, vol. 32, no. 5, pp. 362367.
4. Kyu, N.G. and Chernov, O.I., RF patent no. 2131032, Byull. Izobret., 1999, no. 15.
5. Kyu, N.G., Freidin, A.M., and Chernov, O.I., Dimension Stone Production Using Hydraulic Fracturing, Gornyi Zh., 2001, no. 3, pp. 7175.
6. Tambovtsev, P.N., Experimental Investigation into the Impact Fluid Fracturing of Rock Blocks, J. Min. Sci., 2004, vol. 40, no. 3, pp. 265272.
7. Petreev, A.M. and Tambovtsev, P.N., Impact Loading of a Hard Rock via Plastic Substance in a Drill Hole, J. Min. Sci., 2006, vol. 42, no. 6, pp. 592599.
8. Kyu, N.G., Particular Issues Associated with Fluid Fracturing of Rocks by Plastic Materials, J. Min. Sci., 2011, vol. 47, no. 4, pp. 450459.
9. Tambovtsev, P.N., Physical Simulation of Stone Block Cutting under Impact Action on Plastic Substance in Drill Hole, J. Min. Sci., 2015, vol. 51, no. 1, pp. 7380.
10. Belyaev, N.M., Soprotivlenie materialov (Material Strength), Moscow: Nauka, 1965.
11. Karkashadze, G.G., Mekhanicheskoe razrushenie gornykh porod (Rock Disintegration), Moscow: MGGU, 2004.
12. Karasev, Yu.G. and Baka, N.T., Prirodnyi kamen, dobycha blochnogo i stenovogo kamnya: ucheb. posobie (Natural Stone, Dimension Stone and Masonry Block Production: Educational Aid), Saint-Petersburg: SPbGGU, 1997.


B. B. Danilov and B. N. Smolyanitsky

Chinakal Institute of Mining, Siberian Branch, Russian Academy of Sciences,
Krasnyi pr. 54, Novosibirsk, 630091 Russia
e-mail: bsmol@misd.ru

Under discussion is soil transport by negative pressure generated in horizontal rotating pipeline. Based on the relations between soil batch velocity, soil batch mass and diameter of the pipeline, the authors have developed procedure to determine the limit pipeline length. The rotary velocity of the pipeline is related with its diameter. Reliability of the proposed procedure results is experimentally proved.

Drilling, drillhole, pipeline, transport, soil batch, pressure differential

DOI: 10.1134/S1062739116041105 

1. Trubetskoy, K.N. (Ed.), Gornye nauki. Osvoenie i sokhranenie nedr Zemli (Mining Sciences. Development and Preservation of the Earths Mineral Resources), Moscow: AGN, 1997.
2. Smolyanitsky, B.N., Repin, A.A., Danilov, B.B., et al., Enhancing Efficiency and Useful Life of Pulse-Generating Machines for Hole Drilling in Rocks, Integratsionnye proekty SO RAN (Integration Projects of the Siberian Branch of the Russian Academy of Sciences), Issue 43, Novosibirsk, SO RAN, 2013.
3. Malevich, I.P. and Matveev, A.I., Pnevmaticheskii transport sypuchikh stroitelnykh materialov (Air Conveying of Granular Construction Materials), Moscow: Stroiizdat, 1979.
4. Danilov, B.B. and Smolyanitsky, B.N., New Long Hole Horizontal Drilling Machine with Broken Soil Removal under Compressed Air, Stroit. Dorozh. Mash., 2013, no. 7, pp. 1722.
5. Danilov, B.B. and Smolyanitsky, B.N., RF patent 2344241, Byull. Izobret., 2009, no. 2.
6. Danilov, B.B. and Smolyanitsky, B.N., Concerted Operation of Pneumatic Percussion Tool and Air-Aided Chips Removal Line in Horizontal Hole Drilling Machines, J. Min. Sci., 2013, vol. 49, no. 3, pp. 459464.
7. Danilov, B.B. , Smolyanitsky, B.N., and Sher, E.N., Determination of Conditions for Compressed Air-Assisted Removal of Plastic Soil in Horizontal Pipeline in Drilling, J. Min. Sci., 2014, vol. 50, no. 3, pp. 484490.
8. http://www.220-volt.ru/
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M. Radosavljević, S. Vujića, T. Boshevski, J. Prashtalo, and B. Jovanović

Mining Institute of Belgrade,
Batajnicki put 2, Zemun, 11080 Serbia
e-mail: slobodan.vujic@ribeograd.ac.rs
Rudproekt, Aleksandar Makedonski 9, Skopje, 1000 R. Macedonia

Coordination of heating energy sector performance and legal regulations and standards in the area of air protection from toxic substances involves opportunity analysis of limestone supply as limestone is used as deoxidant in the process of sulfur removal from smoke fuses. The problem of supplying heat power plants with limestone reduces to location identification, i.e. selection of an open pit mine offering the lowest cost of transportation. The authors present a single-phase local model for evaluation of decision-making in management of limestone supply to heat energy sector plants in Serbia.

Single-phase local model, supply management, limestone, heat power plant, open pit mine

DOI: 10.1134/S1062739116041117 

1. Ahmet Yucekaya and Kadir Has, Cost Minimizing Coal Logistics for Power Plants Considering Transportation Constraints, Journal of Traffic and Logistics Engineering, 2013, vol. 1, no. 2, pp. 122127.
2. Bodon, P., Fricke, C, Sandeman, T., and Stanford, C., Modeling the Mining Supply Chain from Mine to Port. A Combined Optimization and Stimulation Approach, J. Min. Sci., 2011, vol. 47, no. 2, pp. 202211.
3. Reay-Chen Wanga and Tien-Fu Liangb, Applying Possibilistic Linear Programming to Aggregate production Planning, Int. J. Production Economics, 2005, pp. 328341.
4. Stanojević, R., Optimization Macro-Economy Models, Velatra, Belgrade, 2001.
5. Case Study on the Possibility of Limestone Supplies for the Purpose of Smoke Gases Desulfurization at the Thermal Power Plant Kostolac, Thermal Power Plant Nikola Tesla And New Thermo-Energetic Facilities, Mining Institute And Tekon, Belgrade, 2014.
6. Vujić, S., Optimization MethodsApplication of Linear Programming in Open Pit Mining, Faculty of Mining and Geology, Belgrade, 1977.
7. Vujić, S., Miljanović, I., Kuzmanović, M., et al., The Deterministic and Fuzzy Linear Approach in Planning the Production of Mine System with Several Open Pits, Archives of Mining Sciences, 2011, vol. 56, no. 3, 2011, pp. 489497.
8. Vujić, S., Benović, T., Miljanović, et al., Fuzzy Linear Model of Production Optimization of Mining Systems with Multiple Entities, International Journal of Minerals, Metallurgy and Materials, 2011, vol. 18, no. 6, pp. 633637.

E. V. Freidina, A. A. Botvinnik, and A. N. Dvornikova

Chinakal Institute of Mining, Siberian Branch, Russian Academy of Sciences,
Krasnyi pr. 54, Novosibirsk, 630091 Russia
e-mail: albyna@misd.ru
Novosibirsk State University of Economics and Management,
ul. Kamenskaya 52, Novosibirsk, 630091 Russia

The presented geological and technical factors make it possible to differentiate coal reserves in South Yakutia based on their property of washability. The authors have constructed algorithm for processing of data of float-and-sink analysis and evaluated coal reserves differentiation criteria. The article describes model of optimization of concentrate yield and quality management and proposes matrix of composition of end products based on the market requirements.

Reserves differentiation, density composition model, washability category, concentrate, end product quality management

DOI: 10.1134/S1062739116041129 

1. USSR State Standard GOST 10100–84, Ugli kamennye i antratsit. Metod opredeleniya obogatimosti (Bituminous Coal and Anthracite. Washability Determination), Moscow: Izd. standartov, 1984.
2. Sokolov, V.G., Krivye obogatimosti uglei (Coal Washability Curves), Moscow: Gosgortekhizdat, 1962.
3. Zemlyakov, B.A., Prognozirovanie kharakteristik obogatimosti uglei (Predicting Washability Characteristics of Coal), Moscow: Nedra, 1978.
4. USSR State Standard GOST 4790–80, Ugli burye, kamennye, antratsit i goryuchie slantsy. Metod fraktsionnogo analiza (Lignite, Bituminous Coal, Anthracite and Oil Shale. Float-and-Sink Analysis) Moscow: Izd. standartov, 1980.
5. Freidina, E.V., Dvornikova, A.N., and Tretyakov, S.A., Structure and Models of the Computer-Aided Current Planning of Mining with Optimizing Batch Mixture Composition and Calculating Yield of Washed Product of Baking Coal, Voprosy sovershenstvovaniya gornykh rabot na shakhtakh i karerakh Sibiri (Improvement of Open Pit and Underground Mining in Siberia), Novosibirsk: IGD SO AN SSSR, 1990, pp. 121138.
6. Dvornikova, A.N. and Tretyakov, S.A., Methodical Basis for Estimation of Coal Washability for Formulating a Batch Mixture in Open Pit Mines, Osvoenie toplivno-energeticheskikh kompleksov vostochnykh raionov strany (Development of the Fuel-and-Energy Industry in the East of the Country), Novosibirsk: IGD SO AN SSSR, 1989, pp. 147159.
7. Freidina, E.V., Dvornikova, A.N., and Tretyakov, S.A., Evaluating the Utilization of Coking-Coal Reserves, J. Min. Sci., 1997, vol. 33, no. 5, pp. 463470.
8. Antipenko, L.A., Modern Technologies of Coal Preparation and Washing, Ugol, 2015, no. 12, pp. 6872.
9. Kotkin, A.M., Yampolsky, M.N., and Gerashchenko, K.D., Otsenka obogatimosti uglya i effektivnosti protsessov obogashcheniya (Evaluating Coal Washability and Washing Efficiency), Moscow: Nedra, 1982.
10. Kozlov, V.A., The Variation of the Concentration Ratio Output for Different Grain Size Classes of the Metallurgical Coal at Elginskoe Deposit, GIAB, 2011, no. 5.
11. Freidina, E.N., Botvinnik, A.A., and Dvornikova, A.N., Coal Quality Control in the Context of International Standards ISO 90002000, J. Min. Sci., 2008, vol. 44, no. 6, pp. 589599.

V. I. Cheskidov and V. K. Norri

Chinakal Institute of Mining, Siberian Branch, Russian Academy of Sciences,
Krasnyi pr. 54, Novosibirsk, 630091 Russia
e-mail: cheskid@misd.nsc.ru

The analytical results are given for application of stripping with direct dumping in open pit mines in Kuzbass. It is emphasized that this most productive and the least power-consuming technology loses its weight in the overall content of overburden stripping. The authors propose a method to determine rational boundaries for application area of stripping with direct dumping using slice re-excavation coefficient. The scope of the discussion comprises potential trends of the technology and use of draglines towards enhancement of open pit mining efficiency.

Open pit mine, stripping with direct dumping, dragline, application area

DOI: 10.1134/S1062739116041130 

1. Tarazanov, I.G., Coal Industry Performance in RF in 2015, Ugol, 2016, no. 3.
2. Repin, N.Ya. and Fazalov, G.T., Introduction of overburden dumping by blasting to mined-out area in mining with direct dumping in Kuzbass, Ugol, 1971, no. 5.
3. Trubetskoy, K.N., Krasnyansky, G.L., and Khronin, V.V., Proektirovanie karerov (Open Pit Mine Design), Moscow: AGN, 2001.
4. Cheskidov, V.I. and Norri, V.K., Enhancing Efficiency of Combination Mining Systems for Horizontal and Gently Dipping Bedded Deposits, GIAB, 2005, no. 1.
5. Official web site of Kuzbass razrezugol Coal Company, www.kru.ru/about/indices/.
6. Vasilev, E.I. and Cheskidov, V.I., Substantiation of Application of Overburden Rehandling in Flat Dipping Deposits, J. Min. Sci., 2003, vol. 39, no. 6, pp. 586590.
7. Gvozdkova, T.N., Mining with Direct Dumping in a Series of Three Flat Dipping Beds with the Overall Thickness of Partings of 80 m in Sibirginsky Open Pit Mine, Vestn. KuzGTU, 2004, no. 3.
8. Nazarov, I.V., Numerical Modeling of Overburden Rehandling by Draglines, Vestn. BFU, 2013, no. 4.
9. Menshonok, P.P. and Cheskidov, V.I., Selection of a Mining Scheme for Gently Dipping Deposits at the Maximum Internal Dumping in Mined-Out Area, Proc. 2nd Int. Conf. on Open Pit Mining, Moscow, 1996.
10. Selyukov, V.O., Technological Significance of Internal Dumping in Open Pit Coal Mining in the Kemerovo Region, J. Min. Sci., 2015, vol. 51, no. 5, pp. 879887.
11. Kirillov, M.A., Improvement of Efficiency of Overburden Dumping by Blasting to Mined-Out-Area in Open Pit Coal Mining with Direct Dumping Technology, Cand. Tech. Sci. Dissertation, Irkutsk, 1999.
12. Ivanovsky, D.S., Removal of Different Strength Overburden to Mined-Out Area of an Open Pit Mine by Blasthole Blasting, Ratsional. Osvoen. Nedr, 2011, no. 2, pp. 5457.


A. M. Krasyuk, I. V. Lugin, E. L. Alferova, and L. A. Kiyanitsa

Chinakal Institute of Mining, Siberian Branch, Russian Academy of Sciences,
Krasnyi pr. 54, Novosibirsk, 630091 Russia
e-mail: krasuk@cn.ru

The authors inspect operation of ventilation system in a double-line subway tunnel. It is found that air flow rates required for tunnels and passenger stations differ greatly. For routine operation modes in subway tunnels, the authors evaluate longitudinal ventilation flow chart without station-to-station air chambers, which considerably decreases construction cost of subway ventilation infrastructure. Static pressure fluctuations on outside faces of trains that move in a tunnel in opposite directions are determined. For emergency operation modes of subway tunnel ventilation, under train fire in a tunnel, the authors evaluate a fore-and-aft chart of smoke removal. Toxic emission concentration due to smoke fumes on the way of a breakdown train evacuation is determined. It is proposed to install longitudinal screens in tunnels to ensure safe concentrations of carbon monoxide and carbon dioxide on either way from a breakdown train to a station.

Subway, tunnel ventilation, double-line tunnel, emergency operation mode, carbon dioxide concentration, longitudinal screen

DOI: 10.1134/S1062739116041154 

1. Starkov, A.Yu., Construction Technology of the Double-Line Running Tunnel in the Saint-Petersburg Metro, Metro Tonneli, 2011, no. 2, pp. 89.
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3. Krasyuk, A.M., Lugin, I.V., and Pavlov, S.A., Circulatory Air Rings and Their Influence on Air Distribution in Shallow Subways, J. Min. Sci., 2010, vol. 46, no. 4, pp. 431437.
4. Krasyuk, A.M., Lugin, I.V., Pavlov, S.A., Romanov, V.I., and Melnik, G.A., RF patent no. 2556558, Byull. Izobret., 2015, no. 19.
5. RF Construction Code SP 120.13330.2012. Subways, Moscow: Minregion Rossii, 2013.
6. Krasyuk, A.M., Tonnelnaya ventilyatsiya metropolitenov (Tunnel Ventilation in Subways), Novosibirsk: Nauka, 2006.
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13. Krasnikov, A.V., Kulev, D.Kh., Fedorov, A.I., and Gitsovich, A.V., Composition of Burning Products of Basic Materials Used to Manufacture Subway Cars, Protivopozharnaya zashchita podzemnykh sooruzhenii metropolitenov (Fire Protection of Underground Infrastructure in Subways), Moscow: VNIIPO, 1986.
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22. Lazarev, N.V. and Gadaskina, I.D., Vrednye veshchestva v promyshlennosti: spravochnik dlya khimikov, inzhenerov i vrachei (Toxic Agents in Industry: Handbook for Chemists, Engineers and Physicians), Leningrad: Khimiya, 1977.

A. A. Ordin, A. M. Timoshenko, A. A. Metelkov, and S. A. Kolenchuk

Chinakal Institute of Mining, Siberian Branch, Russian Academy of Sciences,
Krasnyi pr. 54, Novosibirsk, 630091 Russia
e-mail: ordin@misd.ru
VostNII Science Center,
ul. Institutskaya 3, Kemerovo, 650002 Russia
Giprougol Institute,
ul. Trikotazhnaya 41a, Novosibirsk, 630015 Russia

The authors have revealed analytical dependences for the length of a longwall and the background methane emission from a coal bed, mined-out void and wall rocks during a maintenance shift. The actual values of methane release in Kotinskaya Mine and methane concentration in a breakage heading of Kostromovskaya Mine, Belon, measured using air-and-gas control equipment are presented. The authors evaluate theoretical relationships for the cyclical behavior of methane release during a work shift in a production heading of a coal mine.

Mine, production heading, longwall length, methane emission, methane concentration, cyclical behavior

DOI: 10.1134/S1062739116041166 

1. Trubetskoy, K.N., Ruban, A.D., and Zaburdyaev, V.S., Characteristics of Methane Release in Highly Productive Coal Mines, J. Min. Sci., 2011, vol. 47, no. 4, pp. 467475.
2. Rukovodstvo po proektirovaniyu ventilyatsii ugolnykh shakht. Proekt (Guidelines on Ventilation Design for Coal Mines. Project), Moscow, 2010.
3. Rukovodstvo po proektirovaniyu ventilyatsii ugolnykh shakht (Guidelines on Ventilation Design for Coal Mines), Kiev, 1994.
4. Ushakov, K.Z. (Ed.), Rudnichnaya ventilyatsiya: spravochnik (Mine Ventilation: Reference Book), Moscow: Nedra, 1988.
5. Instruktsiya po primeneniyu skhem provetrivaniya vyemochnykh uchastkov shakht s izolirovannym otvodom metana iz vyrabotannogo prostranstva s pomoshchyu gazootsasyvayushchikh ustanovok (Guidelines on Ventilation Flow Charts for Extraction Panels with Isolated Methane Removal by Gas-Suction Plants), Federal Environmental, Industrial and Nuclear Supervision Service of the Russian Federation, 2011.
6. Ordin, A.A., Timoshenko, A.M., and Kolenchuk, S.A., Ultimate Length and Capacity of Production Heading with Regard to gas Content, Considering Nonuniform Airflow, J. Min. Sci., 2015, vol. 51, no. 4, pp. 771778.
7. Ordin, A.A. and Timoshenko, A.M., Reduction of Coal Bed Methane Release under High-Rate Advance of Production Face, J. Min. Sci., 2015, vol. 51, no. 4, pp. 779784.
8. Ordin, A.A. and Metelkov, A.A., Optimization of the Fully-Mechanized Stoping Face Length and Efficiency in a Coal Mine, J. Min. Sci., 2013, vol. 49, no. 2, pp. 254264.
9. Ordin, A.A., Nikolsky, A.M., and Metelkov, A.A., Modeling and Optimization of Preparatory Work and Stoping in a Coal Mine Panel, J. Min. Sci., 2013, vol. 49, no. 6, pp. 941949.
10. Timoshenko, A.M., Baranova, M.N., Nikiforov, D.V. et al., Some Aspects of Application of regulatory Documents in Highly Productive Extraction Panel Design in Coal Mines, Vestn. NTs VostNII, 2010, no. 1.
11. Vengerov, I.R., Teplofizika shakht i rudnikov. Matematicheskie modeli (Thermophysics of Coal and Metal Mines. Mathematical Models), Donetsk: Nord-Press, 2008, vol. 1.
12. Zaburdyaev, V.S., Novikova, I.A., and Smetanin, V.S., Coalbed 52 Methane Emission in Highly Productive Kotinskaya Mine, SUEK-Kuzbass, GIAB, 2011, no. 1, pp. 1823.
13. Pravila bezopasnosti v ugolnykh shakhtakh (Safety Code for Coal Mines), Moscow: 2013.
14. Kondrashin, Yu.A., Koloyarov, V.K., Yastremsky, S.I., et al., Rudnichnyi transport i mekhanizatsiya vspomogatelnykh rabot: catalog-spravochnik (Mine Transport and Mechanization of Auxiliary Operations: CatalogManual), Moscow: Gornaya kniga, 2010.


V. A. Chanturia, E. L. Chanturia, I. Zh. Bunin, M. V. Ryazantseva, E. V. Koporulina, A. L. Samusev, and N. E. Anashkina

Institute of Integrated Mineral DevelopmentIPKON, Russian Academy of Sciences,
Kryukovskii tupik 4, Moscow, 111020 Russia
e-mail: vchan@mail.ru

The article gives a report on integrated experimental research into targeted change of chemical and phase composition of surface and increase in contrast of physicochemical, electrical and electrochemical properties of tantalite, columbite and zircon under treatment by acid product of water electrolysisanolyte (pH < 5) and by muriatic solution (HCl, pH 33.5). The X-ray photoelectron spectroscopy, high resolution spectroscopy and chemical and electrophysical techniques reveal the mechanism of structuralchemical surface transformation of tantalite, columbite, zircon and feldspar under leaching in acid solutions; this surface transformation mechanism consists in activation of dissolving of iron- and silicate-containing surface films and high-rate oxidation of iron atoms in surface layer of tantalite and columbite, with transition of Fe(II) to Fe(III) and surface destruction of zircon, with formation of oxygen-vacant defects of and type under influence of anolyte.

Tantalite, columbite, zircon, feldspar, quartz, X-ray photoelectron spectroscopy, microscopy, physicochemical and electric properties, anolyte and HCl solution treatment of minerals

DOI: 10.1134/S1062739116041190 

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15. Rudinsky, M.E., Gutkin, A.A., and Brunkov, P.N., Electrostatic Potential of Epitaxial InN Layer Surface and its Variation under Anode Oxidation, Poverkh. Rentg. Sinkhrotr. Neitr. Issled., 2012, no. 5, pp. 4852.
16. Bunin, I.Zh., Chanturia, V.A., Anashkina, N.E., and Ryazantseva, M.V., Experimental Validation of Mechanism for Pulsed Energy Effect on Structure, Chemical Properties and Microhardness of Rock-Forming Minerals of Kimberlites, J. Min. Sci., 2015, vol. 51, no. 4, pp. 799810.
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V. A. Bocharov, V. A. Ignatkina, and A. A. Kayumov

National University of Science and TechnologyMISIS,
Leninskii pr. 4, Moscow, 119049 Russia
e-mail: woda@mail.ru

Monomineral and compound fractions, ore material and concentrates are used to study the effect of basic processing factors on mineral separation. The key criteria are determined to choose a method of selective extraction of minerals and their species in various cycles of a process flow chart. Such key criteria include: degree of activating effect of copper minerals on other sulfides; multifunction role of iron compounds; medium pH values; combination and concentration of depressing ions of modifying reagents; ratios of selective collectors in their combinations; scientific principles of flow chart designing; principles of concentration and recovery of minerals in different processes of dressing.

Minerals, sulfides, species, flotation, activation, depression, oxidation, flotation reagents, fractionating, concentrating, hydrophobic nature, hydrophilic nature, contrast, technology, model, flow chart

DOI: 10.1134/S1062739116041202 

1. Bocharov, V.A. and Ignatkina, V.A., Tekhnologiya obogashcheniya poleznykh iskopaemykh (Mineral Processing), Moscow: Ruda Metally, 2007, vol. 1.
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6. Bocharov, V.A. and Ignatkina, V.A., Role of Iron and its Content in Sulfide Nonferrous and Noble Metal Ore Processing, Izv. Vuzov. Tsv. Metall., 2007, no. 5, pp. 412.
7. Mitrofanov, S.I., Selektivnaya flotatsiya (Selective Flotation), Moscow: Nedra, 1967.
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9. Bocharov, V.A., Ignatkina, V.A., and Khachatryan, L.S., Problems of Separation of Mineral Complexes in Processing of Massive Rebellious Nonferrous Metal Ores, Tsv. Met., 2014, no. 5, pp. 1623.
10. Abramov, A.A., Flotatsiya. Sulfidnye mineraly: sobranie sochinenii (Flotation. Sulfide Minerals: Collected Works), Moscow: Gorn. Kniga, 2013, vol. VIII.
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14. Ryaboi, V.I., Problems on Application and Development of New Flotation Agents in Russia, Tsv. Met., 2011, no. 3, pp. 714.
15. Ignatkina, V.A., Bocharov, V.A., Milovich, F.O., et al., New Approaches to Investigation into Mechanism of Sulfhydryl Collector Action in Sulfide Flotation, Proc. Congress of CIS Dressers, Moscow: MISIS, 2015, vol. II, pp. 475482.
16. Eropkin, Yu.I., Obogashchenie orudenennykh peschanikov (Processing of Mineralized Sandstones), Saint-Petersburg: Nauka, 1999.
17. Filimonov, V.I., Vershinin, E.A., and Bocharov, V.A., Sodium Sulfide Effect in Oxidation Reactions in Cyanide-Free Sulfide Mineral Flotation, Tsv. Metall., 1968, no. 7, pp. 1517.
18. Vershinin, E.A. and Filimonov, V.I., On Integrated Effect of Sodium Sulphide and Sodium Sulfite in Chalcopyrite, Sphalerite, and Pyrite Flotation, Tsv. Metall., 1968, no. 11, pp. 1518.
19. Himawan, T. B. M. Petrus and Hirajima, Petrus T., Alternative Techniques to Separate Tennantite from Chalcopyrite: Single Minerals and ArsenoCopper Ore Flotation Study, Proc. XXVI IMPC, New Deli, 2012.

S. A. Kondratev, V. I. Rostovtsev, and I. I. Baksheeva

Chinakal Institute of Mining, Siberian Branch, Russian Academy of Sciences,
Krasnyi pr. 54, Novosibirsk, 630091 Russia
e-mail: kondr@misd.nsc.ru

The data of experimental research into mechanical properties of limestone, hornfels and sandstone cores after treatment by accelerated electrons show that the irradiation changes the strength and deformation characteristics of the tested rocks. In limestone and hornfels, uniaxial compression strength and elasticity modulus decrease, and ratio of P- and S- wave velocities changes; in sandstone tensile strength decreases, while uniaxial compression strength, P- and S-wave velocities and dynamic Youngs modulus grow. Modification of the minerals after accelerated electron irradiation opens ways of creating efficient energy-saving technologies for pre-treatment and processing of complex ores.

Mineral raw material, limestone, hornfels, sandstone, strength, deformation, acoustics, elastic waves, accelerated electron irradiation, ore pre-treatment

DOI: 10.1134/S1062739116041214 

1. Chanturia, V.A. and Malyarov, P.V., Review of Global Advance in Mineral Disintegration Engineering and Technology in Mineral Processing, Proc. Int. Conf. Plaksins Lectures2012 Modern Processing Mineralogy Techniques in Comprehensive Raw Mineral Material Processing, Petrozavodsk: Karelia Scientific Center, RAS, 2012, pp 310.
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V. S. Rimkevich, A. P. Sorokin, and O. V. Churushova

Institute of Geology and Nature Management, Far East Branch, Russian Academy of Sciences,
per. Relochnyi 1, Blagoveshchensk, 675000 Russia
e-mail: igip@ascnet.ru
Amur Science Center, Far East Branch, Russian Academy of Sciences,
per. Relochnyi 1, Blagoveshchensk, 6750000 Russia
e-mail: amurnc@ascnet.ru

The research is aimed at revealing optimum physicochemical conditions for waste processing at coal-firing heat-power plants. The efficient technology has been developed for integrated extraction of amorphous silica, alumina, English red and other useful components.

Coal-firing power plant waste, physicochemical processing, integrated extraction, efficient technology, amorphous silica, alumina, useful components

DOI: 10.1134/S1062739116041226 

1. Cherepanov, A.A. and Kardash, V.T., Integrated Processing of Heat Power Plant Wastes, Geology and Mineral Resources of the World Ocean, 2009, no. 2, pp. 98115.
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V. P. Potapov, V. N. Oparin, E. L. Schastlivtsev, O. L. Giniyatullina, I. E. Kharlampenkov, and P. V. Sidorenko

Kemerovo Division, Institute of Computational Technologies,
Siberian Branch, Russian Academy of Sciences,
ul. Rukavishnikova 21, Kemerovo, 650025 Russia
e-mail: kembict@gmail.com
Chinakal Institute of Mining, Siberian Branch, Russian Academy of Sciences,
Krasnyi pr. 54, Novosibirsk, 630091 Russia
e-mail: oparin@misd.ncs.ru

The development of a new approach to a distributed information system for bio-diversity appraisal in mining regions, with the use of data storage technologies, cloud computing services and mental processing and analysis of multivariable data is in process. It is suggested to adhere to a cardinally new solution in such system engineering and to add the architecture of such system with NoSQL MongoDB and GeoNetwork components that essentially offload the geoinformation system when retrying special calculations and user requests.

Geoecological block formation, multi-layer system for geomechanical, geodynamic and ecological safety of Russia, distributed systems, bio-diversity appraisal, data storage, cloud-computing service, mining regions, Kuzbass

DOI: 10.1134/S1062739116041238 

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S. V. Serdyukov, T. V. Shilova, and A. N. Drobchik

Chinakal Institute of Mining, Siberian Branch, Russian Academy of Sciences,
Krasnyi pr. 54, Novosibirsk, 630091 Russia
e-mail: ss3032@yandex.ru

The three-component polyurethane composition is developed to create impervious screens in rock mass by hydraulic fracturing technique. Formulas for working fluids and their injection charts are given. The article describes a lab test and the test data on polymer setting time versus activator concentration and on effect of the fluid composition on the permeability of a porous medium at the limited flow rate of reagent per unit area of the screen.

Rock mass, impervious screen, polymeric insulating composition, setting time, gas permeability, hydraulic fracturing

DOI: 10.1134/S106273911604125X

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