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Estimation of the Solution of a Spatial Parabolic Equation Describing Anisotropic Geological Systems

Partial differential equations have a wide practical application. For the mathematical description of various physical processes and phenomena, initial-boundary problems are constructed. The construction and analysis of their solutions is an urgent task of modern scientific research. The article con...

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Главные авторы: Tarasenko, E. O., Тарасенко, Е. О., Gladkov, A. V., Гладков, А. В., Gladkova, N. A., Гладкова, Н. А.
Формат: Статья
Язык:English
Опубликовано: Springer Science and Business Media Deutschland GmbH 2024
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Online-ссылка:https://dspace.ncfu.ru/handle/123456789/29204
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spelling ir-123456789-292042024-11-05T11:02:01Z Estimation of the Solution of a Spatial Parabolic Equation Describing Anisotropic Geological Systems Tarasenko, E. O. Тарасенко, Е. О. Gladkov, A. V. Гладков, А. В. Gladkova, N. A. Гладкова, Н. А. Anisotropic model Solution estimation Geological system Initial-boundary problem Parabolic equation Solvability Partial differential equations have a wide practical application. For the mathematical description of various physical processes and phenomena, initial-boundary problems are constructed. The construction and analysis of their solutions is an urgent task of modern scientific research. The article considers the engineering production problem of compaction of subsiding soils by deep explosions. The compaction process can be implemented in two ways: by concentrated and elongated explosive charges, which determines the type of function of the gas source resulting from the explosion. An anisotropic geological system is described by a spatial parabolic equation with given initial and boundary conditions. The solution of the initial-boundary problem is the density of the soil as a result of its compaction by deep explosions and is determined at each point of the three-dimensional Euclidean space over time. The conditions for the existence of a solution to the stated initial-boundary problems are the continuity and differentiability of the functions included in the parabolic equation. An estimate for the solution of the initial-boundary problem within the framework of the anisotropic geological system under study is constructed and proved. 2024-11-05T10:59:30Z 2024-11-05T10:59:30Z 2024 Статья Tarasenko E.O., Gladkov A.V., Gladkova N.A. Estimation of the Solution of a Spatial Parabolic Equation Describing Anisotropic Geological Systems // Lecture Notes in Networks and Systems. - 2024. - 1044 LNNS. - pp. 180 - 186. - DOI: 10.1007/978-3-031-64010-0_17 https://dspace.ncfu.ru/handle/123456789/29204 en Lecture Notes in Networks and Systems application/pdf Springer Science and Business Media Deutschland GmbH
institution СКФУ
collection Репозиторий
language English
topic Anisotropic model
Solution estimation
Geological system
Initial-boundary problem
Parabolic equation
Solvability
spellingShingle Anisotropic model
Solution estimation
Geological system
Initial-boundary problem
Parabolic equation
Solvability
Tarasenko, E. O.
Тарасенко, Е. О.
Gladkov, A. V.
Гладков, А. В.
Gladkova, N. A.
Гладкова, Н. А.
Estimation of the Solution of a Spatial Parabolic Equation Describing Anisotropic Geological Systems
description Partial differential equations have a wide practical application. For the mathematical description of various physical processes and phenomena, initial-boundary problems are constructed. The construction and analysis of their solutions is an urgent task of modern scientific research. The article considers the engineering production problem of compaction of subsiding soils by deep explosions. The compaction process can be implemented in two ways: by concentrated and elongated explosive charges, which determines the type of function of the gas source resulting from the explosion. An anisotropic geological system is described by a spatial parabolic equation with given initial and boundary conditions. The solution of the initial-boundary problem is the density of the soil as a result of its compaction by deep explosions and is determined at each point of the three-dimensional Euclidean space over time. The conditions for the existence of a solution to the stated initial-boundary problems are the continuity and differentiability of the functions included in the parabolic equation. An estimate for the solution of the initial-boundary problem within the framework of the anisotropic geological system under study is constructed and proved.
format Статья
author Tarasenko, E. O.
Тарасенко, Е. О.
Gladkov, A. V.
Гладков, А. В.
Gladkova, N. A.
Гладкова, Н. А.
author_facet Tarasenko, E. O.
Тарасенко, Е. О.
Gladkov, A. V.
Гладков, А. В.
Gladkova, N. A.
Гладкова, Н. А.
author_sort Tarasenko, E. O.
title Estimation of the Solution of a Spatial Parabolic Equation Describing Anisotropic Geological Systems
title_short Estimation of the Solution of a Spatial Parabolic Equation Describing Anisotropic Geological Systems
title_full Estimation of the Solution of a Spatial Parabolic Equation Describing Anisotropic Geological Systems
title_fullStr Estimation of the Solution of a Spatial Parabolic Equation Describing Anisotropic Geological Systems
title_full_unstemmed Estimation of the Solution of a Spatial Parabolic Equation Describing Anisotropic Geological Systems
title_sort estimation of the solution of a spatial parabolic equation describing anisotropic geological systems
publisher Springer Science and Business Media Deutschland GmbH
publishDate 2024
url https://dspace.ncfu.ru/handle/123456789/29204
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