Russian Federation
Inter-well measurements are used to reduce drilling costs with no reduce small kimberlite body detection. The radio wave method enables measurement of the apparent absorption coefficient that is proportional to the effective electrical resistance of the rock. Our point is to build a three-dimensional model of distribution of electrical properties of inter-well space throughout the entire exploration region. The measured data is distributed unevenly because data points are grouped along the linear clusters. The distance between neighbor points composing a cluster is much smaller than distance between clusters. In terms of geostatistics, this means a significant spatial anisotropy of data distribution that is difficult to take into account using standard geostatistical approach. We have shown that the problem could be solved by methods developed within the theory of machine learning. To build a three-dimensional model of attenuation coefficient we used a modified method of k" role="presentation">k
inter-well scanning, radio wave survey, machine learning, kNN-algorithm
1. Aleshin, I. M., V. M. Zhandalinov (2009), Application of interpolation procedures for presentation of data electromagnetic wave lightning, Russ. J. Earth Sci., 11, no. 1, p. 1-4, https://doi.org/10.2205/2009ES000430
2. Cherepanov, A. O. (2017), Multi-frequency radio wave measurements in wells to monitor the process of thawing MMP (example of the Russkoe oil field, Western Siberia), KRAUNZ Bulletin. Series: Earth Science, 4, p. 118-123 (in Russian)
3. Isaaks, E. H., R. M. Srivastava (1989), Applied Geostatistics, 589 pp., Oxford University Press, New York
4. Istratov, V. A., M. G. Lysov, I. V. Chibrikin, et al. (2000), Radio wave geointroscopy (RWGI) of inter-well space in oil fields, Geophysics, Special issue, p. 59-68 (in Russian)
5. Istratov, V. A., A. V. Skrinnik, S. O. Perekalin (2006), New equipment for radio wave geointoscopy of rocks in the interwell space "RWGI-2005", Instruments and systems for exploration geophysics, no. 1, p. 37-43 (in Russian)
6. Istratov, V. A., A. V. Kolbenkov, E. V. Perekalin, S. O. Lyax (2009), Radio wave monitoring method of technological processes in the interwell space, KRAUNZ Bulletin. Series: Earth Science, 14, p. 59-68 (in Russian)
7. Kevorkyanc, S. S., V. Y. Abramov, Y. D. Kovalev (2005), Well radio wave complex for searching for kimberlite pipes in Western Yakutia, Geophysics, 3, p. 56-64 (in Russian)
8. Kuznetsov, N. M. (2008), Experience of the radiowave geointroscopy of the interwell space for the exploration of a gold-copper deposit, Exploration and protection of mineral resources, no. 12, p. 27-29 (in Russian)
9. Kuznetsov, N. M. (2012), The 3D method of processing the data of radio wave scanning of the interwell space, KRAUNZ Bulletin. Series: Earth Science, no. 1, p. 240-246 (in Russian)
10. Nikolenko, S. I., A. A. Kadurin, E. O. Arxangel'skaya (2018), Deep learning, 479 pp., Piter, St. Petersburg (in Russian)
11. Petrovskij, A. D. (1971), Radio wave methods in underground geophysics, 224 pp., Nedra, Moscow (in Russian)
12. Tolstov, A. V., N. N. Zinchuk, I. V. Serov (2018), Main results of research and experimental-methodical works of "ALROSA" (PJSC), Efficiency of geological exploration for diamonds: forecasting and resource, methodical, innovative and technological ways to increase it, p. 12-30, "ALROSA" company, Mirny
13. Shmakov, I. I. (2018), Problems of scientific support in exploration for diamonds, Geology and minerageny of northern Eurasia. Materials of the meeting dedicated to the 60-th anniversary of the Institute of Geology and Geophysics of the Siberian Branch of the Academy of Sciences of the USSR, p. 265, Sobolev Institute of geology and mineralogy SB RAS, Novosibirsk, Russia (in Russian)
14. Zhuravlev, Yu. I., V. V. Ryazanov, O. V. Sen'ko (2006), Recognition. Mathematical methods. Software system. Practical applications., 159 pp., Fazis, Moscow (in Russian)