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Please use this identifier to cite or link to this item: https://oldena.lpnu.ua/handle/ntb/52223
Title: Integration of electric prospectingmethods for forecasting the subsidence and sinkholes within the salt deposits in the Precarpathian area
Other Titles: Комплексування методів електророзвідки у задачах прогнозування техногенних просідань і провалів на родовищах солі Передкарпаття
Authors: Кузьменко, Е. Д.
Максимчук, В. Ю.
Багрій, С. М.
Сапужак, О. Я.
Чепурний, І. В.
Дещиця, С. А.
Дзьоба, У. О.
Kuzmenko, E. D.
Maksymchuk, V. Yu.
Bagriy, S. M.
Sapuzhak, O. Ya.
Chepurnyi, I. V.
Deshchytsya, S. A.
Dzoba, U. O.
Affiliation: Карпатське відділення Інституту геофізики ім. С. І. Субботіна НАН України
Івано-Франківський національний технічний університет нафти і газу
Carpathian branch of Subbotin Institute of Geophysics of the National Academy of Sciences of Ukraine
Ivano-Frankivsk National Technical University of Oil and Gas
Bibliographic description (Ukraine): Integration of electric prospectingmethods for forecasting the subsidence and sinkholes within the salt deposits in the Precarpathian area / E. D. Kuzmenko, V. Yu. Maksymchuk, S. M. Bagriy, O. Ya. Sapuzhak, I. V. Chepurnyi, S. A. Deshchytsya, U. O. Dzoba // Geodynamics : SCIENTIFIC JOURNAL. — Lviv : Lviv Politechnic Publishing House, 2019. — No 2(27). — P. 54–65.
Bibliographic description (International): Integration of electric prospectingmethods for forecasting the subsidence and sinkholes within the salt deposits in the Precarpathian area / E. D. Kuzmenko, V. Yu. Maksymchuk, S. M. Bagriy, O. Ya. Sapuzhak, I. V. Chepurnyi, S. A. Deshchytsya, U. O. Dzoba // Geodynamics : SCIENTIFIC JOURNAL. — Lviv : Lviv Politechnic Publishing House, 2019. — No 2(27). — P. 54–65.
Is part of: Геодинаміка : науковий журнал, 2(27), 2019
Geodynamics : SCIENTIFIC JOURNAL, 2(27), 2019
Journal/Collection: Геодинаміка : науковий журнал
Issue: 2(27)
Issue Date: 26-Feb-2019
Publisher: Lviv Politechnic Publishing House
Place of the edition/event: Львів
Lviv
UDC: 550.83
Keywords: Стебницьке родовище
калійна сіль
суфозійно-фільтраційний процес
електророзвідка
гіпсо-глиниста шапка
карст
депресія
Stebnytsky deposit
potassium salt
perfusion-filtration process
electrical exploration
gypsumclay cap
karst
depression
Number of pages: 12
Page range: 54-65
Start page: 54
End page: 65
Abstract: Мета. Метою роботи є дослідження ефективності комплексу методів природного імпульсного електромагнітного поля Землі (ПІЕМПЗ) та зондувань становленням електромагнітного поля (ЗС) для попередньої оцінки ступеня стабільності гірничих масивів у межах родовищ калійних солей Передкарпаття, а також прогнозування розвитку деформаційних процесів у приповерховому шарі геологічного середовища. Методика. Проведення площівних та профільних спостережень методами ПІЕМПЗ та ЗС на території шахтних полів родовищ калійних солей та побудова моделей геоелектричних розрізів, визначення зон з аномальними значеннями електричної провідності та інтенсивності природного електромагнітного випромінювання. Результати. За результатами профільних електрометричних методів (ЗС) та площівних спостережень ПІЕМПЗ на території шахтного поля рудника № 2 Стебницького родовища калійних солей виявлено та оконтурено зони аномальних значень електропровідності та аномалії інтенсивності електромагнітного випромінювання. На основі комплексної інтерпретації виділено зони підвищеної карстопровальної небезпеки на ділянці автодороги Трускавець – Пісочне. Зроблено висновок про високу інформативність та ефективність комплексу методів ЗС і ПІЕМПЗ для оцінки ступеня карстопровальних процесів у зонах розроблення корисних копалин. Наукова новизна. Полягає в експериментально підтвердженій ефективності та високій інформативності комплексного застосування методів ЗС і ПІЕМПЗ для вивчення стану геологічного середовища, охопленого карстопровальними процесами у межах родовищ калійних солей. Практична значущість. Запропонований комплекс геофізичних методів ЗС і ПІЕМПЗ дає змогу з високою достовірністю спрогнозувати зони ймовірних карстових провалів та здійснити запобіжні заходи для мінімізації наслідків розвитку карстопровальних геологічних ситуацій.
Objective. The aim of this work is to study the efficiency of combining such methods as: investigation of the natural pulse electromagnetic field of Earth (NIEMFE) and transient electromagnetics (TEM) for the preliminary assessment of the degree of stability of mining fields within the deposits of potassium salts in the Precarpathian area, as well as forecasting the development of deformation processes in the near-surface layer of the geological environment. Methodology. Conducting areal and profile observations using NIEMFE and TEM techniques in the territory of the mining fields of potassium salts deposits and constructing the models of geoelectric sections; determination of zones with abnormal values of electrical conductivity and intensity of natural electromagnetic radiation. Results. According to the results of profile TEM and areal observations of NIEMFE on the mining field No. 2 of the Stebnytsky deposit of potassium salts, zones of abnormal electrical conductivity and anomalies in electromagnetic radiation intensity were detected and outlined. On the basis of the complex interpretation, the areas of increased karst sinkhole danger on a certain part of the Truskavets – Pisochnaya highway were singled out. The conclusion is that a set of methods NIEMFE and TEM for assessing the degree of karst sinkhole processes in the areas of mining activities is highly informative and efficient. Scientific novelty. The scientific novelty lies in the experimentally confirmed efficiency and high informativeness of the complex application of TEM and NIEMFE methods for studying the state of the geological environment endangered by karst deformation processes within the deposits of potassium salts. Practical significance. The proposed set of geophysical methods of TEM and NIEMFE allows predicting with high reliability the areas of probable karst sinkhole formation, which will allow taking preventive measures to minimize the consequences of karst deformation processes of a geological nature upon human settlement.
URI: https://ena.lpnu.ua/handle/ntb/52223
Copyright owner: © Інститут геології і геохімії горючих копалин Національної академії наук України, 2019
© Національний університет “Львівська політехніка”, 2019
© Kuzmenko E. D., Maksymchuk V. Yu., Bagriy S. M., Sapuzhak O. Ya., Chepurnyi I. V., Deshchytsya S. A., Dzoba U. O.
References (Ukraine): Abaturova, I. V., Savintsev, I. A., Borisikhina, O. A.,
Kozlov, V. S., Shevaldin, D. A., Balakin, V. Y.
(2017). Evaluation of engineering-geological
conditions of the rock mass in mining deposits of
underground way, Engineering Geophysics 2017,
DOI: 10.3997/2214-4609.201700375
Bagriy, S. M. (2016). Geophysical monitoring of
geological environment within the Ukrainian
potassium deposits (for example of Kalush-Holyn
deposit) (Phd. dissertation, Ivano-Frankivsk
National Technical University of oil and gas).
Burak, K. O., Kuzmenko, E. D., Bagriy, S. M.,
Grynishak, M. Ya., Melnychenko, G. G.,
Mykhailyshyn, V. P., & Kovtun, V. M. (2014).
Features of geodetic monitoring and forecasting of
geotechnogenic dynamics at mine fields of
potassium deposits. Journal of Geodesy and
Cartography, (5), 12–18.
Deshchytsya, S. A., Pidvirny, O. I., Romanyuk, O. I.,
Sadovyi, Yu. V., Kolyadenko, V. V., Savkiv, L. G.,
& Myshchyshyn, Yu. S. (2016). Evaluation of the
state of the ecologically problematic mining and
industrial objects in Kalush region by electromagnetic methods and their monitoring. Science
and innovation, 12(5), 47–59.
Diakiv, V. О., Dranovska, А. V., Khevpa, Z. Z. Failure of September 30, 2017, over mine No. 2 of
Stebnitske GHP POLIMINERAL: causes,
consequences and current state (based on the
results of material-balance modeling and
monitoring observations), Subsoil use in ukraine.
Prospects for investment. Materials fifth
scientific-practical conference (Ukraine, Truskavets, 8–12 October 2018). State Commission of
Ukraine for Mineral Resources. (2),
p. 103–115.
Frid, V. (1997). Electromagnetic radiation method for
rock and gas outburst forecast. Journal of Applied
Geophysics, 38(2), 97–104. doi:10.1016/S0926-9851(97)00017-7.
Gaidin А.М. (2018) Save Solotvyno. Subsoil use in
ukraine. Prospects for investment. Materials fifth
scientific-practical conference (Ukraine, Truskavets, 8–12 October 2018). State Commission of
Ukraine for Mineral Resources . (2), p. 57–64.
Gaidin, А. М., & Rudko, G. I. (2016). Technogenic
karst.
Gaidin, А. М., Diakiv, V. О., & Chikova, І. V.
(2014). Deformation of the Earth's surface in the
area of activity of the potash mines in Stebnik.
Ecological Safety and Balanced Use of Resources,
(2 (10)), 112–120.
Gondwe, B. R. N., Lerer, S., Stisen, S., Marín, L.,
Rebolledo-Vieyra, M., Merediz-Alonso, G., &
Bauer-Gottwein, P. (2010). Hydrogeology of the
south-eastern yucatan peninsula: New insights from
water level measurements, geochemistry, geophysics
and remote sensing. Journal of Hydrology, 389(1–2), 1–17. doi:10.1016/j.jhydrol.2010.04.044.
Greiling, R. O., & Obermeyer, H. (2010). Natural
electromagnetic radiation (EMR) and its
application in structural geology and neotectonics.
Journal of the Geological Society of India, 75(1), 278–288.
Kryzhanivskyi, E. I., Kuzmenko, E. D., Palijchuk, M. V.,
& Baranenko, B. T. (2008). Technogenic situation
in the region of Kalush industrial area. Scientific
bulletin Ivano-Frankivsk National Technical
University of Oil and Gas, (2), 5–11.
Kuzmenko, E., Bagriy, S., Chepurnyi, I. V., &
Shtohryn, M. (2017). Estimation of hazards of the
surface deformations of rocks within stebnyk
potassium salt deposit area by method ENPEMF.
Geodynamics, (22), 98–113. DOI: 10.23939/jgd2017.01.098
Kuzmenko, E. D., Bahrii, S. M., & Dzoba, U. O.
(2018). The depth range of the Earth's natural
pulse electromagnetic field (or ENPEMF). Journal
of Geology, Geography and Geoecology, 27(3), 466–477. DOI: 10.15421/111870.
Maksymchuk V., Sapuzhak O., Deshchytsya S.,
Ladanivskyi B., Romanyuk O., Kolyadenko V.
(2019). Investigation of karstic processes on the
territory of Stebnik deposit of potassium salts by
methods of electric prospecting, Abstracts of the 24th International Scientific Conference
“Geoforum-2019» (10–12.04.2019), Lviv, NU
„Lvivska politekhnika”, p. 37–38.
Mordvinov, I.S., Stasyuk, V.M., Pakshyn, M.Yu.,
Lyaska, I. I. (2018) Monitoring of vertical
displacements of the territory of the MCE
“POLIMINERALЄ with the use of satellite
interferometric radar measurements, Subsoil use in
ukraine. Prospects for investment. Materials fifth
scientific-practical conference (Ukraine,
Truskavets, 8–12 October 2018). State
Commission of Ukraine for Mineral Resources.
(2), p. 94–102.
Obermeyer, H., Lauterbach, M., & Krauter, E. (2001,
June). Monitoring landslides with natural
electromagnetic pulse radiation. In international
conference on landslides (pp. 297–304).
Ogilvi, А. А. (1990). Fundamentals of Engineering
Geophysics: Textbook. Nedra, 501 p.
Pavliuk, V. I. (2016). Natural factors of activation the
exogenous processes at technogenicallymodified
sites of the salt deposits of the Precarpathians.
Geodynamics, (1), 94–105.
Pueyo-Anchuela, Ó., Casas-Sainz, A. M., Soriano, M. A.,
& Pocoví-Juan, A. (2010). A geophysical survey
routine for the detection of doline areas in the
surroundings of zaragoza (NE spain). Engineering
Geology, 114(3–4), 382–396. doi: 10.1016/
j.enggeo.2010.05.015.
Rabinovitch, A., Frid, V., Bahat, D., & Shava, B.
(1996). Emission of electromagnetic radiation by
rock fracturing. Zeitschrift fur Geologische
Wissenschaften, 24, 361–368.
Shurovskyi, A., Anikeev, S., Shamotko, V.,
Deshchytsya, S., Nikolaienko, О., & Popluiko, А.
(2012). Geophysical monitoring of environmentally hazardous geological processes in the
Kalush agglomeration, Mineral Resources of
Ukraine, (2), 31–38.
Shurovskyi, A. D., Anikeev, S. G., Shamotko, V. Y.,
& Deshchytsya, S. A. (2013). Geophysical
monitoring of the geological environment to solve
environmental problems within the agglomeration
of Kalush. Mining journal, (12), 99–104.
References (International): Abaturova, I. V., Savintsev, I. A., Borisikhina, O. A.,
Kozlov, V. S., Shevaldin, D. A., Balakin, V. Y.
(2017). Evaluation of engineering-geological
conditions of the rock mass in mining deposits of
underground way, Engineering Geophysics 2017,
DOI: 10.3997/2214-4609.201700375
Bagriy, S. M. (2016). Geophysical monitoring of
geological environment within the Ukrainian
potassium deposits (for example of Kalush-Holyn
deposit) (Phd. dissertation, Ivano-Frankivsk
National Technical University of oil and gas).
Burak, K. O., Kuzmenko, E. D., Bagriy, S. M.,
Grynishak, M. Ya., Melnychenko, G. G.,
Mykhailyshyn, V. P., & Kovtun, V. M. (2014).
Features of geodetic monitoring and forecasting of
geotechnogenic dynamics at mine fields of
potassium deposits. Journal of Geodesy and
Cartography, (5), 12–18.
Deshchytsya, S. A., Pidvirny, O. I., Romanyuk, O. I.,
Sadovyi, Yu. V., Kolyadenko, V. V., Savkiv, L. G.,
& Myshchyshyn, Yu. S. (2016). Evaluation of the
state of the ecologically problematic mining and
industrial objects in Kalush region by electromagnetic methods and their monitoring. Science
and innovation, 12(5), 47–59.
Diakiv, V. O., Dranovska, A. V., Khevpa, Z. Z. Failure of September 30, 2017, over mine No. 2 of
Stebnitske GHP POLIMINERAL: causes,
consequences and current state (based on the
results of material-balance modeling and
monitoring observations), Subsoil use in ukraine.
Prospects for investment. Materials fifth
scientific-practical conference (Ukraine, Truskavets, 8–12 October 2018). State Commission of
Ukraine for Mineral Resources. (2),
p. 103–115.
Frid, V. (1997). Electromagnetic radiation method for
rock and gas outburst forecast. Journal of Applied
Geophysics, 38(2), 97–104. doi:10.1016/S0926-9851(97)00017-7.
Gaidin A.M. (2018) Save Solotvyno. Subsoil use in
ukraine. Prospects for investment. Materials fifth
scientific-practical conference (Ukraine, Truskavets, 8–12 October 2018). State Commission of
Ukraine for Mineral Resources . (2), p. 57–64.
Gaidin, A. M., & Rudko, G. I. (2016). Technogenic
karst.
Gaidin, A. M., Diakiv, V. O., & Chikova, I. V.
(2014). Deformation of the Earth's surface in the
area of activity of the potash mines in Stebnik.
Ecological Safety and Balanced Use of Resources,
(2 (10)), 112–120.
Gondwe, B. R. N., Lerer, S., Stisen, S., Marín, L.,
Rebolledo-Vieyra, M., Merediz-Alonso, G., &
Bauer-Gottwein, P. (2010). Hydrogeology of the
south-eastern yucatan peninsula: New insights from
water level measurements, geochemistry, geophysics
and remote sensing. Journal of Hydrology, 389(1–2), 1–17. doi:10.1016/j.jhydrol.2010.04.044.
Greiling, R. O., & Obermeyer, H. (2010). Natural
electromagnetic radiation (EMR) and its
application in structural geology and neotectonics.
Journal of the Geological Society of India, 75(1), 278–288.
Kryzhanivskyi, E. I., Kuzmenko, E. D., Palijchuk, M. V.,
& Baranenko, B. T. (2008). Technogenic situation
in the region of Kalush industrial area. Scientific
bulletin Ivano-Frankivsk National Technical
University of Oil and Gas, (2), 5–11.
Kuzmenko, E., Bagriy, S., Chepurnyi, I. V., &
Shtohryn, M. (2017). Estimation of hazards of the
surface deformations of rocks within stebnyk
potassium salt deposit area by method ENPEMF.
Geodynamics, (22), 98–113. DOI: 10.23939/jgd2017.01.098
Kuzmenko, E. D., Bahrii, S. M., & Dzoba, U. O.
(2018). The depth range of the Earth's natural
pulse electromagnetic field (or ENPEMF). Journal
of Geology, Geography and Geoecology, 27(3), 466–477. DOI: 10.15421/111870.
Maksymchuk V., Sapuzhak O., Deshchytsya S.,
Ladanivskyi B., Romanyuk O., Kolyadenko V.
(2019). Investigation of karstic processes on the
territory of Stebnik deposit of potassium salts by
methods of electric prospecting, Abstracts of the 24th International Scientific Conference
"Geoforum-2019" (10–12.04.2019), Lviv, NU
"Lvivska politekhnika", p. 37–38.
Mordvinov, I.S., Stasyuk, V.M., Pakshyn, M.Yu.,
Lyaska, I. I. (2018) Monitoring of vertical
displacements of the territory of the MCE
"POLIMINERALIe with the use of satellite
interferometric radar measurements, Subsoil use in
ukraine. Prospects for investment. Materials fifth
scientific-practical conference (Ukraine,
Truskavets, 8–12 October 2018). State
Commission of Ukraine for Mineral Resources.
(2), p. 94–102.
Obermeyer, H., Lauterbach, M., & Krauter, E. (2001,
June). Monitoring landslides with natural
electromagnetic pulse radiation. In international
conference on landslides (pp. 297–304).
Ogilvi, A. A. (1990). Fundamentals of Engineering
Geophysics: Textbook. Nedra, 501 p.
Pavliuk, V. I. (2016). Natural factors of activation the
exogenous processes at technogenicallymodified
sites of the salt deposits of the Precarpathians.
Geodynamics, (1), 94–105.
Pueyo-Anchuela, Ó., Casas-Sainz, A. M., Soriano, M. A.,
& Pocoví-Juan, A. (2010). A geophysical survey
routine for the detection of doline areas in the
surroundings of zaragoza (NE spain). Engineering
Geology, 114(3–4), 382–396. doi: 10.1016/
j.enggeo.2010.05.015.
Rabinovitch, A., Frid, V., Bahat, D., & Shava, B.
(1996). Emission of electromagnetic radiation by
rock fracturing. Zeitschrift fur Geologische
Wissenschaften, 24, 361–368.
Shurovskyi, A., Anikeev, S., Shamotko, V.,
Deshchytsya, S., Nikolaienko, O., & Popluiko, A.
(2012). Geophysical monitoring of environmentally hazardous geological processes in the
Kalush agglomeration, Mineral Resources of
Ukraine, (2), 31–38.
Shurovskyi, A. D., Anikeev, S. G., Shamotko, V. Y.,
& Deshchytsya, S. A. (2013). Geophysical
monitoring of the geological environment to solve
environmental problems within the agglomeration
of Kalush. Mining journal, (12), 99–104.
Content type: Article
Appears in Collections:Геодинаміка. – 2019. – №2(27)

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