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Geology
  • Date submitted
    2022-11-21
  • Date accepted
    2024-05-02
  • Date published
    2024-08-26

M1 formation tectono-structural features and gas-oil potential within Archinskaya area Paleozoic basement (Western Siberia)

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Western Siberian Plate basement oil and gas potential evaluation largely depends on structural and stratigraphic complex architecture representation. New modern procedures for seismic data processing, detailed Paleozoic deposits stratigraphic studies and expanded geophysical well logging significantly change the representation of the basement rocks fold-block structure and previously developed hydrocarbon reservoirs models. Detailed studies conducted within the Archinskii uplift showed that Paleozoic sediments form a contrasting folded structure complicated by block tectonics. The significant block displacements amplitude determines the lithological and stratigraphic basement rocks erosional-tectonic surface, while the identified stratigraphic blocks control the oil productivity distribution within the Archinskaya area. The filtration-capacity heterogeneity folded structure of the Paleozoic sediments is reflected in the distribution of hydrocarbon saturation in the well section, forming independent gas, oil, and oil-water zones for the development process. The relationship between anticlinal structural forms of basement rocks to lowered, and synclinal to elevated blocks, determines the necessity to conduct exploration prospecting within younger stratigraphic blocks when assessing the deep Paleozoic oil and gas potential.

How to cite: Belozerov V.B., Korovin M.O. M1 formation tectono-structural features and gas-oil potential within Archinskaya area Paleozoic basement (Western Siberia) // Journal of Mining Institute. 2024. Vol. 268 . p. 520-534. EDN XDUIIJ
Geology
  • Date submitted
    2021-03-16
  • Date accepted
    2021-07-27
  • Date published
    2021-10-21

Allocation of a deep-lying brine aquifer in the rocks of a chemogenic section based on the data of geophysical well logging and 2D seismic exploration

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Advancement in the production of potassium fertilizers is an important strategic task of Russian agricultural industry. Given annually growing production rates, the reserves of discovered potassium-magnesium salt deposits are noticeably decreasing, which creates the need to ensure stable replenishment of the resource base through both the discovery of new deposits and the exploitation of deep-lying production horizons of the deposits that are already under development. In most cases, deposits of potassium-magnesium salts are developed by underground mining. The main problem for any salt deposit is water. Dry salt workings do not require any additional reinforcement and can easily withstand rock pressure, but with an inflow of water they begin to collapse intensively – hence, special attention is paid to mine waterproofing. Determination of spatial location, physical and mechanical properties of the aquifer and water-blocking stratum in the geological section represent an important stage in the exploration of a salt deposit. The results of these studies allow to validate an optimal system of deposit development that will minimize environmental and economic risks. On the territory of Russia, there is a deposit of potassium-magnesium salts with a unique geological structure – its production horizon lies at a considerable depth and is capped by a regional aquifer, which imposes significant limitations on the development process. To estimate parameters of the studied object, we analyzed the data from CDP seismic reflection survey and a suite of methods of radioactive and acoustic well logging, supplemented with high-frequency induction logging isoparametric sounding (VIKIZ) data. As a result of performed analysis, we identified location of the water-bearing stratum, estimated average thickness of the aquifers and possible water-blocking strata. Based on research results, we proposed methods for increasing operational reliability of the main shaft in the designed mine that will minimize the risks of water breakthrough into the mine shaft.

How to cite: Danileva N.A., Danilev S.M., Bolshakova N.V. Allocation of a deep-lying brine aquifer in the rocks of a chemogenic section based on the data of geophysical well logging and 2D seismic exploration // Journal of Mining Institute. 2021. Vol. 250 . p. 501-511. DOI: 10.31897/PMI.2021.4.3
Geology and geophsics
  • Date submitted
    2010-07-14
  • Date accepted
    2010-09-29
  • Date published
    2011-03-21

Basic requirements for shallow seismic field works technique by the reflected waves method for engineering-geological issues solving

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The main requirements for the shallow seismic field works technique parameters for engineer-geological issues solving are represented. The optimum technique for the St.-Petersburg and its suburbs territory based on the results of experimental seismic studies, providing a detailed study of the upper part of the geological section, are proved.

How to cite: Telegin A.N., Yakovlev A.S. Basic requirements for shallow seismic field works technique by the reflected waves method for engineering-geological issues solving // Journal of Mining Institute. 2011. Vol. 189 . p. 72-75.
Geology and geophsics
  • Date submitted
    2010-07-11
  • Date accepted
    2010-09-14
  • Date published
    2011-03-21

Application of seismic reflection method for engineering-geological issues solving in Saint Petersburg and Leningrad region

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Several examples of seismic reflection method test surveys in St.-Petersburg and its suburbs are reviewed. The key point of research was the choice of an optimum field seismic works technique, processing and interpretation technique, providing the reliable solution of shallow depth investigation for the presented area.

How to cite: Yakovlev A.S. Application of seismic reflection method for engineering-geological issues solving in Saint Petersburg and Leningrad region // Journal of Mining Institute. 2011. Vol. 189 . p. 76-78.