Organization of geomechanical monitoring for non-metallic deposits chambers roofs

Serhii Skipochka; Viktor Serhiienko; Volodymyr Amelin; Oleh Sytnichenko

doi:10.1051/e3sconf/201910900090

All issues

Volume 109 (2019)

E3S Web Conf., 109 (2019) 00090

References

Open Access

Issue		E3S Web Conf. Volume 109, 2019 International Conference Essays of Mining Science and Practice


Article Number		00090
Number of page(s)		11
DOI		https://doi.org/10.1051/e3sconf/201910900090
Published online		09 July 2019

Amelin, V.A., Vasilyev, B.V., Kucherenko, S.A., Amelina, L.V. (2010). The technological control of ceilings chambers on gypsum mines. Geotekhnicheskaya Mekhanika [Geo-Technical Mechanics], (91), 122-127 [Google Scholar]
Cheskidov, V.V., Kurenkov, D.S., Manevich, A.I. (2017). The modern methods and means of operating control in mines for support ecological and industrial safety. Gornyu informatsionno-analiticheskiy byulleten [Mining informational and analytical bulletin], (6), 188-199 [Google Scholar]
Yeremenko, V.A., Yesina, Ye.N., Semenyakin, Ye.N. (2015). Technology of monitoring of an intense strained state of the developed massif of rocks. Gornyu zhurnal, (8), 42-47 [CrossRef] [Google Scholar]
Baryshnikov, V.D., Baryshnikov, D.V., Gakhova L.N., Kachalsky, V.G. (2014). Practical experience of geomechanical monitoring in underground mineral mining. Journal of Mining Science, (5), 61-73 [Google Scholar]
Lashenko, V.I. (2016). Development of geomechanical monitoring of properties and a condition of the massif of rocks by underground mining of fields of the complex structure. Marksheyderskiy vestnik, (1), 35-43 [Google Scholar]
Abramovich, A.S., Pudov, Ye.Yu., Kusin, Ye.G. (2017). Prerequisites of creation of a system of the automated monitoring and accounting of shifts of a roof of underground developments for the purpose of increase in safety of maintaining horns of works. Vestnik KGTU, (5), 85-90 [Google Scholar]
P. Strzalkowski, K. Tomiczek, Proposal of a methodology assessing the risk of sink holes formation in mining areas, International Journal of Mining Sciences and Technology, 1, 85-89 (2015) [CrossRef] [Google Scholar]
NPAOP 0.00-1.77-16. (2017). Pravyla bezpeky pid chas rozrobky rodovychch rudnykh ta nerudnykh korysnych kopalyn pidzemnym sposobom. Kyiv: MSP [Google Scholar]
Skipochka, S.I., Sergienko, V.N. (2014). Equipment SHVK-1 for the vibroacoustic control of a condition of a rock mass. Geotekhnicheskaya Mekhanika [Geo-Technical Mechanics], (119), 79-86 [Google Scholar]
Antsyuferov, A.V. (2010). Geomekhanichnyu monitoryng pidzemnykh geotekhnichnykh system. Donetsk: Noulidg [Google Scholar]
Bulat, A.F. (2009). Metodicheskie rekomendatsii po geofizicheskomu kontrolyu i diagnostike geomekhanicheskogo sostoyaniya podzemnykh geotekhnicheskikh sistem ugolnykh shakht. Dnipro: IGTM NAS of Ukraine [Google Scholar]
Tokin, A.A. (2013). Monitoring of deformations of underground excavations by means of the laser scanning systems. Interekspo Geo-Sibir, (1), 120-123 [Google Scholar]

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[1] Amelin, V.A., Vasilyev, B.V., Kucherenko, S.A., Amelina, L.V. (2010). The technological control of ceilings chambers on gypsum mines. Geotekhnicheskaya Mekhanika [Geo-Technical Mechanics], (91), 122-127 [Google Scholar]

[2] Cheskidov, V.V., Kurenkov, D.S., Manevich, A.I. (2017). The modern methods and means of operating control in mines for support ecological and industrial safety. Gornyu informatsionno-analiticheskiy byulleten [Mining informational and analytical bulletin], (6), 188-199 [Google Scholar]

[3] Yeremenko, V.A., Yesina, Ye.N., Semenyakin, Ye.N. (2015). Technology of monitoring of an intense strained state of the developed massif of rocks. Gornyu zhurnal, (8), 42-47 [CrossRef] [Google Scholar]

[4] Baryshnikov, V.D., Baryshnikov, D.V., Gakhova L.N., Kachalsky, V.G. (2014). Practical experience of geomechanical monitoring in underground mineral mining. Journal of Mining Science, (5), 61-73 [Google Scholar]

[5] Lashenko, V.I. (2016). Development of geomechanical monitoring of properties and a condition of the massif of rocks by underground mining of fields of the complex structure. Marksheyderskiy vestnik, (1), 35-43 [Google Scholar]

[6] Abramovich, A.S., Pudov, Ye.Yu., Kusin, Ye.G. (2017). Prerequisites of creation of a system of the automated monitoring and accounting of shifts of a roof of underground developments for the purpose of increase in safety of maintaining horns of works. Vestnik KGTU, (5), 85-90 [Google Scholar]

[7] P. Strzalkowski, K. Tomiczek, Proposal of a methodology assessing the risk of sink holes formation in mining areas, International Journal of Mining Sciences and Technology, 1, 85-89 (2015) [CrossRef] [Google Scholar]

[8] NPAOP 0.00-1.77-16. (2017). Pravyla bezpeky pid chas rozrobky rodovychch rudnykh ta nerudnykh korysnych kopalyn pidzemnym sposobom. Kyiv: MSP [Google Scholar]

[9] Skipochka, S.I., Sergienko, V.N. (2014). Equipment SHVK-1 for the vibroacoustic control of a condition of a rock mass. Geotekhnicheskaya Mekhanika [Geo-Technical Mechanics], (119), 79-86 [Google Scholar]

[10] Antsyuferov, A.V. (2010). Geomekhanichnyu monitoryng pidzemnykh geotekhnichnykh system. Donetsk: Noulidg [Google Scholar]

[11] Bulat, A.F. (2009). Metodicheskie rekomendatsii po geofizicheskomu kontrolyu i diagnostike geomekhanicheskogo sostoyaniya podzemnykh geotekhnicheskikh sistem ugolnykh shakht. Dnipro: IGTM NAS of Ukraine [Google Scholar]

[12] Tokin, A.A. (2013). Monitoring of deformations of underground excavations by means of the laser scanning systems. Interekspo Geo-Sibir, (1), 120-123 [Google Scholar]