A review of multiscale numerical modeling of rock mechanics and rock engineering

Abstract Rock is geometrically and mechanically multiscale in nature, and the traditional phenomenological laws at the macroscale cannot render a quantitative relationship between microscopic damage of rocks and overall rock structural degradation. This may lead to problems in the evaluation of rock...

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Published in:Deep Underground Science and Engineering
Main Authors: Xindong Wei, Zhe Li, Gaofeng Zhao
Format: Article
Language:English
Published: Wiley 2025-09-01
Subjects:
Online Access:https://doi.org/10.1002/dug2.12127
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author Xindong Wei
Zhe Li
Gaofeng Zhao
author_facet Xindong Wei
Zhe Li
Gaofeng Zhao
author_sort Xindong Wei
collection DOAJ
container_title Deep Underground Science and Engineering
description Abstract Rock is geometrically and mechanically multiscale in nature, and the traditional phenomenological laws at the macroscale cannot render a quantitative relationship between microscopic damage of rocks and overall rock structural degradation. This may lead to problems in the evaluation of rock structure stability and safe life. Multiscale numerical modeling is regarded as an effective way to gain insight into factors affecting rock properties from a cross‐scale view. This study compiles the history of theoretical developments and numerical techniques related to rock multiscale issues according to different modeling architectures, that is, the homogenization theory, the hierarchical approach, and the concurrent approach. For these approaches, their benefits, drawbacks, and application scope are underlined. Despite the considerable attempts that have been made, some key issues still result in multiple challenges. Therefore, this study points out the perspectives of rock multiscale issues so as to provide a research direction for the future. The review results show that, in addition to numerical techniques, for example, high‐performance computing, more attention should be paid to the development of an advanced constitutive model with consideration of fine geometrical descriptions of rock to facilitate solutions to multiscale problems in rock mechanics and rock engineering.
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spelling doaj-art-2273775d4e58485fbf00a090ea86aeb52025-09-12T14:30:10ZengWileyDeep Underground Science and Engineering2097-06682770-13282025-09-014338240510.1002/dug2.12127A review of multiscale numerical modeling of rock mechanics and rock engineeringXindong Wei0Zhe Li1Gaofeng Zhao2State Key Laboratory of Hydraulic Engineering Intelligent Construction and Operation, School of Civil Engineering Tianjin University Tianjin ChinaState Key Laboratory of Hydraulic Engineering Intelligent Construction and Operation, School of Civil Engineering Tianjin University Tianjin ChinaState Key Laboratory of Hydraulic Engineering Intelligent Construction and Operation, School of Civil Engineering Tianjin University Tianjin ChinaAbstract Rock is geometrically and mechanically multiscale in nature, and the traditional phenomenological laws at the macroscale cannot render a quantitative relationship between microscopic damage of rocks and overall rock structural degradation. This may lead to problems in the evaluation of rock structure stability and safe life. Multiscale numerical modeling is regarded as an effective way to gain insight into factors affecting rock properties from a cross‐scale view. This study compiles the history of theoretical developments and numerical techniques related to rock multiscale issues according to different modeling architectures, that is, the homogenization theory, the hierarchical approach, and the concurrent approach. For these approaches, their benefits, drawbacks, and application scope are underlined. Despite the considerable attempts that have been made, some key issues still result in multiple challenges. Therefore, this study points out the perspectives of rock multiscale issues so as to provide a research direction for the future. The review results show that, in addition to numerical techniques, for example, high‐performance computing, more attention should be paid to the development of an advanced constitutive model with consideration of fine geometrical descriptions of rock to facilitate solutions to multiscale problems in rock mechanics and rock engineering.https://doi.org/10.1002/dug2.12127constitutive modelmultiscale modelingnumerical methodrock
spellingShingle Xindong Wei
Zhe Li
Gaofeng Zhao
A review of multiscale numerical modeling of rock mechanics and rock engineering
constitutive model
multiscale modeling
numerical method
rock
title A review of multiscale numerical modeling of rock mechanics and rock engineering
title_full A review of multiscale numerical modeling of rock mechanics and rock engineering
title_fullStr A review of multiscale numerical modeling of rock mechanics and rock engineering
title_full_unstemmed A review of multiscale numerical modeling of rock mechanics and rock engineering
title_short A review of multiscale numerical modeling of rock mechanics and rock engineering
title_sort review of multiscale numerical modeling of rock mechanics and rock engineering
topic constitutive model
multiscale modeling
numerical method
rock
url https://doi.org/10.1002/dug2.12127
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