676d3c1154be3.pdf
DOI:
Mavjud emas
Abramov, B. I. (2012). Electricity quality regulation in power supply systems of modern land and offshore drilling rigs. (In Russian). Proceedings of the VII International Scientific and Technical Conference on Automated Electric Drive (pp. 465-470). Ivanovo.
Abramov, B. I., & Kogan, A. I. (2009). Frequency-regulated electric drive of drilling rigs BU4200/250. (In Russian). Elektrotekhnika, 1, 8-13.
Anastasiev, P. I., Bershitsky, M. D., Bure B. N., et al. (1991). Reference book on design of electrical networks and electrical equipment. (In Russian). Moscow: Energoatomizdat Publ.
Arrillag, D., Bradley, D., & Bodger, P. (1990). Harmonics in electrical networks. (In Russian). Moscow: Energoatomizdat Publ.
Babkin, E. A. (2010). Improvement, research and diagnostics of control systems of asynchronous frequency-controlled electric drive of drilling rig mechanisms [PhD thesis]. (In Russian). Moscow.
Boyarskaya, N. P. (2011). Improvement of methods of compensation of higher harmonics in electric networks 0,4-10 kV [Abstract of PhD thesis]. (In Russian). Krasnoyarsk.
Chebotaev, N. I. (2006). Electrical equipment and power supply of open-pit mining operations. (In Russian). Moscow: Gornaya Kniga Publ.
Dobrusin, L. A. (2003). Filter-compensating devices for converter technology. (In Russian). Moscow: NTF Energoprogress.
Dobush, V. S. (2013). Compensation of hanging harmonics taking into account phase relations in the electrical complex of industrial enterprises [Abstract of PhD thesis]. (In Russian). St. Petersburg.
Efimov, A. A., & Schreiner, R. T. (2001). Active converters in regulated alternating current electric drives. (In Russian). Novouralsk: NSTI Publ.
Green, A. V. (1998). Filter-compensating devices for ensuring electromagnetic compatibility in electrotechnical complexes with a valve load [Abstract of PhD thesis]. (In Russian). St. Petersburg: St. Petersburg State Mining Institute.
Momot, B. A. (2014). Reducing the influence of frequency-controlled AC drive on the quality of electric power in networks with autonomous source. (In Russian). St. Petersburg.
Motsohein, B. I. (1991). Electrical complexes of drilling rigs. (In Russian). Moscow: Nedra Publ.
Musurmanov, E. Sh. (2023). Optimization of ventilation of sites in mines with complex mining and technological conditions. (In Uzbek). Science and Innovative Development, 3, 24-31.
Parfyonov, B. M., Shevyryov, Y. V., & Shinyansky, A. V. (1984). Thyristor electric drives of the main mechanisms of drilling rigs in the systems of electric supply of commensurable power. (In Russian). Moscow: Informelectro Publ.
Pronin, M. V., & Vorontsov, A. G. (2003). Power fully controlled semiconductor converters (modelling and calculation). (In Russian). St. Petersburg: Elektrosila Publ.
Sarvarov, A. S., Shevyryov, Y. V., & Fedorov, O. V. (2015). Estimation of cost-effectiveness of energy performance improvement in networks with semiconductor converters. (In Russian). Vestnik SUSU. Series ‘Energetics’, 15 (3), 11-19.
Serdyuk, N. N., Kulikov, V. V., Shibanov, B. V., Manchukov, V. G., Ermakov, Y. N., Bebenin, V. Y., Mitrokova, V. M., & Lysov, M. G. (2006). Drilling of wells for various purposes. (In Russian). Moscow: Russian State Geological Exploration University.
Solodukho, Y. Y. (1987). Trends of reactive power compensation (Part 1). In: Reactive power under non-sinusoidal modes of operation. Moscow: Informelectro Publ.
Vinogradov, A. B. (2018). Vector control of alternating current electric drives. (In Russian). Ivanovo: GOUVPO ‘Ivanovo State Power Engineering University named after V.I. Lenin’.