Bibliography: 1. Kaplunov D.R., Ryl’nikova M.V., Radchenko D.N. The implementation of the concept of sustainable development of mountainous areas is the basis for the expansion of the mineral resource complex of Russia. Ustoichivoe razvitie gornykh territorii. 2015, no 3 (25), pp. 46—50. [In Russ]
2. Sokolov I.V., Antipin Yu.G., Nikitin I.V., Baranovskii K.V., Rozhkov A.A. Exploration of underground geotechnology during the transition to the development of deep-lying reserves of an inclined copper pyrite deposit. Izvestiya Ural’skogo gosudarstvennogo gornogo universiteta. 2016, no 2, pp. 47—53. [In Russ]
3. Savich I.N., Gagiev T.A., Pavlov A.A. Substantiation of system parameters and standard indicators of extraction when applying technologies providing for the release of ore under collapsed rocks. Ratsional’noe osvoenie nedr. 2011, no 4, pp. 58—61. [In Russ]
4. Lovitt M. Evolution of sublevel caving — safety improvement through technology. The AusIMM Bulletin, 2016. April. pp. 82–85.
5. Versilov S.O., Ignatov V.N., Ignatov M.V., Semenov A.V., Shestak S.G.The principle of the formation of ore flows during mining by a development system with a collapse and face output of ore. MIAB. Mining Inf. Anal. Bull. 2015, no S11—54, pp. 3—8. [In Russ]
6. Sokolov I.V., Antipin Yu.G., Baranovskii K.V. The choice of underground geotechnology for developing an inclined quartz deposit based on economic and mathematical modeling. MIAB. Mining Inf. Anal. Bull. 2016, no 5, pp. 346—356. [In Russ]
7. Espinoza R.D., Rojo J. Towards sustainable mining (Part I): Valuing investment opportunities in the mining sector. Resources Policy, 2017, Vol. 52. pp. 7—18.
8. Trubetskoi K.N. Razvitie resursosberegayushchikh i resursovosproizvodyashchikh geotekhnologii kompleksnogo osvoeniya mestorozhdenii poleznykh iskopaemykh [Development of resource-saving and resource-reproducing geotechnologies for integrated development of mineral deposits.], Moscow, ICEMR RAS, 2014, 196 p. [In Russ]
9. Li J.-G., Zhan K. Intelligent Mining Technology for an Underground Metal Mine Based on Unmanned Equipment. Engineering, 2018, Vol. 4, Iss. 3, pp. 381—391.
10. Baranovskii K.V., Solomein Yu.M., Antipin Yu.G. Improving the technology of excavating stocks of pillars and the method of redeeming the developed space in the conditions of the Kyshtym underground mine. Problemy nedropol’zovaniya, 2018, no 1 (16), pp. 5—12. [In Russ]
11. Metodicheskie ukazaniya po opredeleniyu dopustimykh proletov obnazhenii treshchinovatykh gornykh porod i razmerov opornykh tselikov pri podzemnoi razrabotke rudnykh mestorozhdenii [Guidelines for determining the permissible spans of outcrops of fractured rocks and sizes of pillars during underground mining of ore deposits], Moscow, ICEMR USSR, 1978, 92 p. [In Russ]
12. Metodicheskie ukazaniya po opredeleniyu razmerov kamer i tselikov pri podzemnoi razrabotke rud tsvetnykh metallov [Guidelines for determining the size of chambers and pillars in the underground mining of non-ferrous metals], Chita, Chita branch of VNIPIgortsvetmet, 1988, 126 p. [In Russ]
13. O’Sullivan D., Newman A. Extraction and Backfill Scheduling in a Complex Underground Mine. Interfaces, 2014, Vol. 44, Iss. 2, pp. 204–221.
14. Smirnov A.A. Patent RU 269306, 04.07.2019. [In Russ]
15. Erzurumlu S.S., Erzurumlu Y.O. Sustainable mining development with community using design thinking and multi-criteria decision analysis. Resources Policy, 2015, Vol. 46, pp. 6—14.
16. Kulikov V.V. Vypusk rudy [Ore production], Moscow, Nedra, 1980, 303 p. [In Russ]
17. Matthews T. Dilution and ore loss projections: Strategies and considerations. SME Annual Conference and Expo and CMA 117th National Western Mining Conference. Mining: Navigating the Global Waters. Denver, United States, 15—18 February, 2015, pp. 529—532.
18. Volkov, Yu.V., Sokolov I.V. Podzemnaya razrabotka mednokolchedannykh mestorozhdenii Urala [Underground mining of copper pyrite deposits of the Ural], Ekaterinburg, UB RAS, 2006, 232 p. [In Russ]