Microseismic Multistage Formation Hydraulic Fracturing (MFHF) Monitoring Analysis Results

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Microseismic monitoring of hydrocarbon fields is one of the promising areas of modern seismology. In recent years, the methodology of microseismic monitoring for seismic emission has been actively developing in the oil and gas industry in order to study the impact of various technogenic processes on the hydrocarbon (HC) fields being developed. The technology does not require powerful sources of sounding signals, but uses constantly existing weak seismic fields of artificial or natural origin. During the development of the field, periodic monitoring of the intensity and spatial position of the zones of microseismic activity allows controling the behavior of HC deposits in order to optimize their development. Distinctive features of this technology are high mobility, fast deployment time, high resolution, and low cost of receiving, transferring and processing of microseismic data. The purpose was to analyze the results and evaluate the effectiveness of MFHF using microseismic monitoring of seismic emission processes. The results were obtained with the help of quantitative microseismic monitoring of seismic foci occurring successively near the well ports at different times during MFHF.

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107-117

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October 2018

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[1] S.I. Aleksandrov, New technique for determining the geometry of formation hydraulic fracture using passive seismic monitoring, Geophysics 6 (2009) 40-43.

Google Scholar

[2] S.I. Aleksandrov, Polarization Analysis of Seismic Waves, O.Yu. Schmidt United Institute of Physics of the Earth of the RAS, Russian Foundation for Basic Research, RANS, Moscow, (1999).

Google Scholar

[3] S.I. Aleksandrov, V.P. Bandov, G.N. Gogonenkov, Control of hydraulic fracturing geometry using borehole microseismic monitoring. Technological risks and success factors, Geophysics 1 (2010) 23-28.

Google Scholar

[4] S.I. Aleksandrov, G.N. Gogonenkov, V.A. Mishin, Application of passive seismic observations to control the parameters of formation hydraulic fracturing, Oil Industry 5 (2005) 64-66.

Google Scholar

[5] S.I. Aleksandrov, G.N. Gogonenkov, V.A. Mishin, D.J. Tessman, Passive seismic monitoring in the development of hydrocarbon fields: a new method of data processing, in: International Geophysical Conference and Exhibition Geophysics of the 21st Century – a Breakthrough into the Future,, Moscow, September 1-4, 2003, EAGO, Moscow, 2003, pp.678-682.

DOI: 10.3997/2214-4609-pdb.38.f270

Google Scholar

[6] S.I. Aleksandrov, G.N. Gogonenkov, A.G. Pasynkov, Passive seismic monitoring to control the geometric parameters of formation hydraulic fracturing, Oil Industry 3 (2007) 51-53.

Google Scholar

[7] S.I. Aleksandrov, V.A. Mishin, D.I. Burov, Microseismic monitoring of formation hydraulic fracturing: successes and issues, Technologies of Extraction and Use of Hydrocarbons 2(1) (2014) 39-43.

Google Scholar

[8] S.I. Aleksandrov, V.A. Mishin, D.I. Burov, Terrestrial microseismic monitoring of formation hydraulic fracturing: quality control and prospects, Oil and Gas Exposition 2 (2014) 31-34.

Google Scholar

[9] S.I. Aleksandrov, V.A. Mishin, D.I. Burov, Issues of borehole and ground microseismic monitoring of formation hydraulic fracturing, Oil and Gas Exposition 6(45) (2015) 58-63.

Google Scholar

[10] S.I. Aleksandrov, V.A. Mishin, M.V. Perepechkin, Data processing system of passive seismic monitoring, Devices and Systems of Exploration Geophysics 39(1) (2012) 58-61.

Google Scholar

[11] P.B. Bortnikov, S.M. Mainagashev, F.D. Shmakov, Results of the integration of structural-deformation analysis and microseismic monitoring in the solution of mapping problems of hydrocarbon filtration channels, in: Ways of Realizing the Oil and Gas and Ore Potential of KhMAO-Ugra: Proceedings of the Xth Scientific and Practical Conference (Vol. 1), IzdatNaukaServis, Khanty-Mansiysk, 2007, pp.111-114.

Google Scholar

[12] I.V. Bryksin, B.K. Zommer, I.S. Murtayev, V.G. Savin, Experience in registration and processing of seismic data obtained in the process of production of formation hydraulic fracturing, TEC Technologies 2 (2006) 11-17.

Google Scholar

[13] V.I. Burov, A.V. Kusevich, Practice of seismic monitoring of formation hydraulic fracturing, Seismology Technologies 1 (2012) 63-66.

Google Scholar

[14] A.G. Gamburtsev, S.I. Aleksandrov, Polarization analysis of scattered seismic waves, Geophysics 3 (1999) 27-30.

Google Scholar

[15] Sh.G. Guravov, G.N. Erokhin, A.N. Kremlev, S.V. Rodin, I.I. Smirnov, New approaches to the search and development of hard-to-recover oil reserves, Nedropolzovanie XXI Vek 1 (2014) 22-25.

Google Scholar

[16] G.N. Erokhin, P.B. Bortnikov, To the definition of the seismic moment tensor of the earthquake focus, Geology and Geophysics 8 (1988) 102-108.

Google Scholar

[17] A.D. Ilinsky, M.A. Krasnov, Location of micro-earthquake foci with passive seismic monitoring of formation hydraulic fracturing, Seismic Devices 45(3) (2009) 14-40.

Google Scholar

[18] A.N. Kremlev, G.N. Erokhin, L.E. Starikov, M.A. Zverev, Prediction of fractured-cavernous reservoirs for scattered seismic waves, Seismology Technologies 3 (2008) 36-39.

DOI: 10.3997/2214-4609.20146800

Google Scholar

[19] O.L. Kuznetsov, I.A. Chirkin, V.P. Dyblenko, R.Ya. Sharifullin, E.G. Rizanov, Features of spectral characteristics of acoustic emission of oil-saturated rocks, Scientific Notes of the Physics Department of Moscow University 6 (2014) 146319.

Google Scholar

[20] O.L. Kuznetsov, I.A. Chirkin, V.V. Firsov, Seismic monitoring as a tool for increasing the efficiency of oilfield development, TEC Technologies June (2006) 12-19.

Google Scholar

[21] A.N. Nikitin, Application of a complex of research to determine the fracture geometry at the fields of OOO RN-Yuganskneftegaz, Scientific and Technical Bulletin of Rosneft Oil Company 2 (2007) 35-37.

Google Scholar

[22] G.N. Erokhin, P.B. Bortnikov, A.P. Kuzmenko, S.M. Maynagashev, S.V. Rodin, Patent 2309434 of the Russian Federation. (2007).

Google Scholar

[23] G.N. Erokhin, P.B. Bortnikov, A.P. Kuzmenko, S.M. Maynagashev, S.V. Rodin, Patent 2319177 of the Russian Federation. (2008).

Google Scholar

[24] M.B. Perepechkin, V.A. Mishin, G.N. Gogonenkov, S.I. Aleksandrov, Data processing system for passive seismic monitoring of FHF, Devices and Systems of Exploration Geophysics 1 (2012) 58-61.

Google Scholar

[25] O.L. Kuznetsova (Ed.), Seismoacoustics of porous and fractured geological media. In 3 vols. Vol. 2. Experimental Research, SSC RF VNIIgeosystem,, Moscow, (2004).

Google Scholar

[26] L.E. Starikov, A.V. Kirichek, A.N. Kremlev, G.N. Erokhin, Fundamentals of geological interpretation of the field of scattered waves CSP, Bulletin of I. Kant BFU. Physics and Mathematics 4 (2013) 124-130.

Google Scholar

[27] I.A. Chirkin, E.G. Rizanov, S.O. Koligayev, Monitoring of microseismic emission – a new direction of development of seismology, Devices and Systems of Exploration Geophysics 3 (2014) 6-15.

Google Scholar

[28] F.D. Shmakov, Technique of processing and interpretation of ground-based microseismic monitoring data, Seismology Technologies 3 (2012) 65-72.

Google Scholar

[29] F.D. Shmakov, S.V. Rodin, K.D. Sisembayev, Modeling research of the accuracy of location of microseismic sources using a modified correlation algorithm, Journal of Scientific Publications of Post-Graduate Students and Doctoral Students, 7(97) (2014).

Google Scholar

[30] F.D. Shmakov, S.V. Rodin, K.D. Sisembayev, Improvement of the method of microseismic monitoring of FHF of the hydrocarbon reservoir: Modified correlation location algorithm, Privolzhsky Scientific Bulletin 8-1(36) (2014) 45-52.

Google Scholar

[31] F.D. Shmakov, S.V. Rodin, K.D. Sisembayev, Improvement of the method of microseismic monitoring of FHF of the hydrocarbon reservoir: Results of data processing of formation hydraulic fracturing, Privolzhsky Scientific Bulletin 8-1(36) (2014).

Google Scholar

[32] M.B. Shneyerson, V.V. Mayorov, Surface Non-Explosive Seismology, Nedra, Moscow, (1988).

Google Scholar