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Application of gamma-ray spectroscopy and IR-spectroscopy methods for the purposes of ore geology in the Timan-Pechora Oil and Gas Province (the case of Ukhta Region)

https://doi.org/10.18599/grs.2021.1.2

Abstract

Two express methods are presented in this paper. The first method is a high-resolution gamma-spectroscopic method based on a germanium detector, the second method is an IR-spectroscopic method. The applied complex of methods allows to determine the sources of uranium and thorium, identify the rhythms of uranium accumulation associated with regional events; identify areas with a high content of uranium due to the influence of local sources (faults, hydrothermal, etc.); determine the amount of authigenous uranium in the composition of total uranium; determine thermal maturity of organic matter in shales without their preliminary demineralization. To identify levels of increased uranium intensity in the high-carbon strata, a set of indicators has been proposed, which includes both applied indicators in practice of geological work and new indicators.
New indicators have been tested on the collection of shale reference samples. For them, values were established that characterize the processes of uranium accumulation and uranium removal. On the example of Ukhta Region according to the proposed indicators, the sections from the VendianRiphean to Domanic inclusive were interpreted.
The performed work showed the possibility of comparing the calculated gamma-spectroscopic data with the data of other methods. This opens up a broader perspective for the use of express non-destructive gamma-spectroscopic method for detecting levels with a high content of uranium in the shale rocks, to which ore-bearing concentrations of a number of metals are also confined.

About the Authors

I. R. Makarova
Petrophysic LLC
Russian Federation

Irina R. Makarova – Cand. Sci. (Geology and Mineralogy), Leading Geologist

5, Shevchenko st., Nizhnii Domanik vill., pgt Yarega, Ukhta, 169347



N. N. Laptev
Petrophysic LLC
Russian Federation

Nikolay N. Laptev – Director

5, Shevchenko st., Nizhnii Domanik vill., pgt Yarega, Ukhta, 169347



S. A. Gorobets
Petrophysic LLC
Russian Federation

Semen A. Gorobets – Deputy Director

5, Shevchenko st., Nizhnii Domanik vill., pgt Yarega, Ukhta, 169347



F. F. Valiev
Saint Petersburg State University
Russian Federation

Farhat F. Valiev – Dr. Sci. (Physics and Mathematics), Professor of the Department of Nuclear Physics Research Methods

1, Ulyanovskaya st., Saint Petersburg, 198504



A. M. Yafyasov
Saint Petersburg State University
Russian Federation

Adil M. Yafyasov – Dr. Sci. (Physics and Mathematics), Professor of the Department of Solid State Electronics

1, Ulyanovskaya st., Saint Petersburg, 198504



V. O. Sergeev
Petrophysic LLC
Russian Federation

Viktor O. Sergeev – Cand. Sci. (Physics and Mathematics), Scientific Advisor

5, Shevchenko st., Nizhnii Domanik vill., pgt Yarega, Ukhta, 169347



A. I. Zippa
Saint Petersburg State University
Russian Federation

Andrey I. Zippa – Engineer, Department of Nuclear Physics Research Methods

1, Ulyanovskaya st., Saint Petersburg, 198504



N. A. Sukhanov
Petrophysic LLC
Russian Federation

Nikita A. Sukhanov – Engineer

5, Shevchenko st., Nizhnii Domanik vill., pgt Yarega, Ukhta, 169347



D. K. Makarov
Herzen University
Russian Federation

Dmitry K. Makarov – Postgraduate student of the Department of Geology and Geoecology

48, riv. Moika emb., Saint Petersburg, 191186



A. S. Grishkanich
Photonics systems LLC
Russian Federation

Aleksandr S. Grishkanich – Cand. Sci. (Engineering), Deputy Director

36, build. 1, Babushkina st., Saint Petersburg, 192171



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Review

For citations:


Makarova I.R., Laptev N.N., Gorobets S.A., Valiev F.F., Yafyasov A.M., Sergeev V.O., Zippa A.I., Sukhanov N.A., Makarov D.K., Grishkanich A.S. Application of gamma-ray spectroscopy and IR-spectroscopy methods for the purposes of ore geology in the Timan-Pechora Oil and Gas Province (the case of Ukhta Region). Georesursy = Georesources. 2021;23(1):17-29. (In Russ.) https://doi.org/10.18599/grs.2021.1.2

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