Skip to content

Dispersion of dielectric permittivity and specific conductivity of carbonate rocks

UDC: 552.08
DOI: 10.24412/2519-2418-2024-341-191-201
EDN: PHPHGL
Received: 18.09.2024
Published: 03.10.2024

Original language: ru

Full text of the article | JATS XML

Gapeev Artem Andreevich, NUST MISIS, Graduate Student, email: agapeev@misis.ru

Abstract
The paper studies the dispersion of dielectric permittivity and conductivity of carbonate rocks on the example of limestone mined in the south of Russia. It is shown that with increasing frequency there is a decrease in dielectric permittivity, and in the low- frequency region the basic mechanism of polarization is interfacial polarization. In turn, the conductivity increases with increasing frequency. Water saturation of the samples with distilled water leads to a multiple increase in the values of electrical properties studied in this work.

Keywords: dielectric permittivity, conductivity, frequency dependence, rocks, sandstone, dispersion

REFERENCES
  1. Cai L., Deng S., Yuan X. Detection Performance Analysis of Array Dielectric Dispersion Logging Based on Sensitivity Function // Sensors. 2023, Vol. 23. – Article Number 5737.
  2. Gonzalez – Teruel J. D., Jones S. B., Soto – Valles F., Torres – Sanchez R., Lebron I., Friedman S. P., Robinson D. A. Dielectric Spectroscopy and Application of Mixing Models Describing Dielectric Dispersion in Clay Minerals and Clayey Soils // Sensors. 2020. – Vol, 20. – Article Number 6678. DOI: 10.3390/s20226678.
  3. Han Tongcheng, Yang Y. S. Numerical and theoretical simulations of the dielectric properties of porous rocks // Journal of Applied Geophysics. 2018. – Vol. 159. – pp. 186 – 192.
  4. Norbisrath J. H., R. J. Weger, G. P. Eberli. Complex resistivity spectra and pore geometry for predictions of reservoir properties in carbonate rocks // Journal of Petroleum Science and Engineering. 2017. – Vol. 151. – pp. 455-467.
  5. Archie G. E. The electrical resistivity log as an aid in deter-mining some reservoir characteristics // Transactions of the AISME. 1946. – Vol. 146 (1). – pp. 54-62.
  6. Kouchmeshky Babak, Rashid Khokhar. Using Dielectric Dispersion Logging to Calculate the Parameters of Archie's Law // SPE Eastern Regional Meeting. – USA. – 2016.
  7. Chen Sh., Ke Sh., Jia J., Cheng L., Shi H., Zhang Y. A laboratory study on the dielectric spectroscopy of sandstone and the improvement of dispersion model // Journal of Petroleum Science and Engineering. 2022. – Vol. 216. – p. 11065.
  8. J. Hao, X. Xu, N. Taylor. An Electrode Setup for Non – con-tact Dielectric Response Measurement // 26th Nordic Insulation Symposium on Materials. – Components and Diagnostics. – 2019. – pp. 88-93.
  9. Loewer M., Günther T., Igel J., Kruschwitz S., Martin Y., Wagner N. Ultra – broad – band electrical spectroscopy of soils and sediments—a combined permittivity and conductivity model // Geo-physical Journal International. 2017. – Vol. 210. – Issue 3. – pp. 1360-1373. DOI: 10.1093/gji/ggx242.
  10. Olatinsu O. B., Olorode D. O., Oyedele K. F. Radio frequency dielectric properties of limestone and sandstone from Ewekoro, Eastern Dahomey Basin // Advances in Applied Science Research. – 2013. – Vol. 4(6). – pp. 150-158.
  11. Connoly P. R. J., Josh M., O’Neill K. T., Seltzer S. J., Wigand M. O., Clennell M .B., May E. F., Johns M. L. Dielectric Polarization Studies in Partially Saturated // Journal of Geophysical Research: Solid Earth. 2019. – Vol. 124. – Issue 11. – pp. 10721-10734.
  12. Hongshuai Bao, Tongcheng Han, Li – Yun Fu. Dielectric properties of porous rocks with partially saturated fractures from finite – difference modeling // Geophysics. 2022. – Vol. 87 (5). – pp. 1-53. DOI: 10.1190/geo2022 – 0041.1.
Мы используем файлы cookie и рекомендательные технологии. Пользуясь сайтом, вы соглашаетесь с Политикой обработки персональных данных.
Принять
Политика конфиденциальности