Standard

Digital Twin of the Seismogeological Object : Building and Application. / Cheverda, Vladimir; Kolyukhin, Dmitry; Lisitsa, Vadim et al.

Supercomputing - 5th Russian Supercomputing Days, RuSCDays 2019, Revised Selected Papers. ed. / Vladimir Voevodin; Sergey Sobolev. Springer Netherlands, 2019. p. 214-224 (Communications in Computer and Information Science; Vol. 1129 CCIS).

Research output: Chapter in Book/Report/Conference proceeding › Conference contribution › Research › peer-review

Harvard

Cheverda, V, Kolyukhin, D, Lisitsa, V, Protasov, M, Reshetova, G, Merzlikina, A, Volyanskaya, V, Petrov, D, Shilikov, V, Melnik, A, Glinsky, B, Chernykh, I & Kulikov, I 2019, Digital Twin of the Seismogeological Object: Building and Application. in V Voevodin & S Sobolev (eds), Supercomputing - 5th Russian Supercomputing Days, RuSCDays 2019, Revised Selected Papers. Communications in Computer and Information Science, vol. 1129 CCIS, Springer Netherlands, pp. 214-224, 5th Russian Supercomputing Days Conference, RuSCDays 2019, Moscow, Russian Federation, 23.09.2019. https://doi.org/10.1007/978-3-030-36592-9_18

APA

Cheverda, V., Kolyukhin, D., Lisitsa, V., Protasov, M., Reshetova, G., Merzlikina, A., Volyanskaya, V., Petrov, D., Shilikov, V., Melnik, A., Glinsky, B., Chernykh, I., & Kulikov, I. (2019). Digital Twin of the Seismogeological Object: Building and Application. In V. Voevodin, & S. Sobolev (Eds.), Supercomputing - 5th Russian Supercomputing Days, RuSCDays 2019, Revised Selected Papers (pp. 214-224). (Communications in Computer and Information Science; Vol. 1129 CCIS). Springer Netherlands. https://doi.org/10.1007/978-3-030-36592-9_18

Vancouver

Cheverda V, Kolyukhin D, Lisitsa V, Protasov M, Reshetova G, Merzlikina A et al. Digital Twin of the Seismogeological Object: Building and Application. In Voevodin V, Sobolev S, editors, Supercomputing - 5th Russian Supercomputing Days, RuSCDays 2019, Revised Selected Papers. Springer Netherlands. 2019. p. 214-224. (Communications in Computer and Information Science). doi: 10.1007/978-3-030-36592-9_18

Author

Cheverda, Vladimir ; Kolyukhin, Dmitry ; Lisitsa, Vadim et al. / Digital Twin of the Seismogeological Object : Building and Application. Supercomputing - 5th Russian Supercomputing Days, RuSCDays 2019, Revised Selected Papers. editor / Vladimir Voevodin ; Sergey Sobolev. Springer Netherlands, 2019. pp. 214-224 (Communications in Computer and Information Science).

BibTeX

@inproceedings{8e5ee36af6384b929a1d0ae5d6b8d95a,
title = "Digital Twin of the Seismogeological Object: Building and Application",
abstract = "The current level of development of numerical methods and high-performance computer systems opens the way to obtain detailed information about the structure of geological objects using 3D seismic study. A universally recognized necessary component that ensures the successful development of modern high-tech technologies for acquiring, processing, and interpreting geophysical data is the complete digital models of geological objects - their digital counterparts. It is on this basis that a detailed assessment of the resolution and information content of the proposed methods and their comparison with the already known processing and interpretation algorithms using the example of a specific geological object becomes possible. Besides, the presence of such digital models allows you to determine the optimal acquisition system, focused on the study of specific features of the object being studied and the selection of the most appropriate graph for processing the data obtained. In this paper, the primary attention is paid to the construction of a realistic three-dimensional geological model with a family of faults, as well as fracture corridors and clusters of cavities. After constructing such an inhomogeneous multi-scale model, we perform a finite-difference numerical simulation of 3D seismic waves{\textquoteright} propagation. The data obtained are processed using the original procedures for extracting scattered/diffracted waves with the subsequent construction of images of the corresponding small-scale objects, which generate these waves. The results obtained are using for verification of the algorithms of scattering and diffraction imaging as well as full waveform inversion.",
keywords = "Digital twin, Discrete elements, Fault formation, Full waveform inversion, GPU parallelization, MPI+OpenMP parallelization, Multiscale geological media, Scattering imaging",
author = "Vladimir Cheverda and Dmitry Kolyukhin and Vadim Lisitsa and Maksim Protasov and Galina Reshetova and Anastasiya Merzlikina and Victoriay Volyanskaya and Denis Petrov and Valery Shilikov and Artjem Melnik and Boris Glinsky and Igor Chernykh and Igor Kulikov",
year = "2019",
doi = "10.1007/978-3-030-36592-9_18",
language = "English",
isbn = "9783030365912",
series = "Communications in Computer and Information Science",
publisher = "Springer Netherlands",
pages = "214--224",
editor = "Vladimir Voevodin and Sergey Sobolev",
booktitle = "Supercomputing - 5th Russian Supercomputing Days, RuSCDays 2019, Revised Selected Papers",
address = "Netherlands",
note = "5th Russian Supercomputing Days Conference, RuSCDays 2019 ; Conference date: 23-09-2019 Through 24-09-2019",

}

RIS

TY - GEN

T1 - Digital Twin of the Seismogeological Object

T2 - 5th Russian Supercomputing Days Conference, RuSCDays 2019

AU - Cheverda, Vladimir

AU - Kolyukhin, Dmitry

AU - Lisitsa, Vadim

AU - Protasov, Maksim

AU - Reshetova, Galina

AU - Merzlikina, Anastasiya

AU - Volyanskaya, Victoriay

AU - Petrov, Denis

AU - Shilikov, Valery

AU - Melnik, Artjem

AU - Glinsky, Boris

AU - Chernykh, Igor

AU - Kulikov, Igor

PY - 2019

Y1 - 2019

N2 - The current level of development of numerical methods and high-performance computer systems opens the way to obtain detailed information about the structure of geological objects using 3D seismic study. A universally recognized necessary component that ensures the successful development of modern high-tech technologies for acquiring, processing, and interpreting geophysical data is the complete digital models of geological objects - their digital counterparts. It is on this basis that a detailed assessment of the resolution and information content of the proposed methods and their comparison with the already known processing and interpretation algorithms using the example of a specific geological object becomes possible. Besides, the presence of such digital models allows you to determine the optimal acquisition system, focused on the study of specific features of the object being studied and the selection of the most appropriate graph for processing the data obtained. In this paper, the primary attention is paid to the construction of a realistic three-dimensional geological model with a family of faults, as well as fracture corridors and clusters of cavities. After constructing such an inhomogeneous multi-scale model, we perform a finite-difference numerical simulation of 3D seismic waves’ propagation. The data obtained are processed using the original procedures for extracting scattered/diffracted waves with the subsequent construction of images of the corresponding small-scale objects, which generate these waves. The results obtained are using for verification of the algorithms of scattering and diffraction imaging as well as full waveform inversion.

AB - The current level of development of numerical methods and high-performance computer systems opens the way to obtain detailed information about the structure of geological objects using 3D seismic study. A universally recognized necessary component that ensures the successful development of modern high-tech technologies for acquiring, processing, and interpreting geophysical data is the complete digital models of geological objects - their digital counterparts. It is on this basis that a detailed assessment of the resolution and information content of the proposed methods and their comparison with the already known processing and interpretation algorithms using the example of a specific geological object becomes possible. Besides, the presence of such digital models allows you to determine the optimal acquisition system, focused on the study of specific features of the object being studied and the selection of the most appropriate graph for processing the data obtained. In this paper, the primary attention is paid to the construction of a realistic three-dimensional geological model with a family of faults, as well as fracture corridors and clusters of cavities. After constructing such an inhomogeneous multi-scale model, we perform a finite-difference numerical simulation of 3D seismic waves’ propagation. The data obtained are processed using the original procedures for extracting scattered/diffracted waves with the subsequent construction of images of the corresponding small-scale objects, which generate these waves. The results obtained are using for verification of the algorithms of scattering and diffraction imaging as well as full waveform inversion.

KW - Digital twin

KW - Discrete elements

KW - Fault formation

KW - Full waveform inversion

KW - GPU parallelization

KW - MPI+OpenMP parallelization

KW - Multiscale geological media

KW - Scattering imaging

UR - http://www.scopus.com/inward/record.url?scp=85076842717&partnerID=8YFLogxK

U2 - 10.1007/978-3-030-36592-9_18

DO - 10.1007/978-3-030-36592-9_18

M3 - Conference contribution

AN - SCOPUS:85076842717

SN - 9783030365912

T3 - Communications in Computer and Information Science

SP - 214

EP - 224

BT - Supercomputing - 5th Russian Supercomputing Days, RuSCDays 2019, Revised Selected Papers

A2 - Voevodin, Vladimir

A2 - Sobolev, Sergey

PB - Springer Netherlands

Y2 - 23 September 2019 through 24 September 2019

ER -

ID: 25773145