A platform for research: civil engineering, architecture and urbanism
Finite Element Simulation of Water Content-Influenced Progressive Failure of Sensitive Clays
Large-scaled landslides often occur in sensitive clay deposits in horsts and grabens, typical of spreads. Most large deformation numerical analysis based on the strain-softening behavior of undrained shear strength. In practice, water infiltration into soils may result a variation of non-uniform crack and shear band emergence at a low soil resistance. In this study, the mechanism of water content effect on the stress-strain relationship was implemented in Mohr-Coulomb (M-C) model using the user material subroutine of the commercial software Abaqus/Explicit. The coupled Eulerian-Lagrangian method (CEL) was used to model such large deformation analysis. The developed model was verified by a simulation of Saint-Jude landslide, which occurred in 2010 in Quebec, Canada. There was a good agreement among numerical results with water content effect comparing to an analytical function. A larger mobile soil mass movement with a significant reduction of soil resistance was simulated successfully using the developed model.
Finite Element Simulation of Water Content-Influenced Progressive Failure of Sensitive Clays
Large-scaled landslides often occur in sensitive clay deposits in horsts and grabens, typical of spreads. Most large deformation numerical analysis based on the strain-softening behavior of undrained shear strength. In practice, water infiltration into soils may result a variation of non-uniform crack and shear band emergence at a low soil resistance. In this study, the mechanism of water content effect on the stress-strain relationship was implemented in Mohr-Coulomb (M-C) model using the user material subroutine of the commercial software Abaqus/Explicit. The coupled Eulerian-Lagrangian method (CEL) was used to model such large deformation analysis. The developed model was verified by a simulation of Saint-Jude landslide, which occurred in 2010 in Quebec, Canada. There was a good agreement among numerical results with water content effect comparing to an analytical function. A larger mobile soil mass movement with a significant reduction of soil resistance was simulated successfully using the developed model.
Finite Element Simulation of Water Content-Influenced Progressive Failure of Sensitive Clays
Lecture Notes in Civil Engineering
Ha-Minh, Cuong (editor) / Dao, Dong Van (editor) / Benboudjema, Farid (editor) / Derrible, Sybil (editor) / Huynh, Dat Vu Khoa (editor) / Tang, Anh Minh (editor) / Doan, Nhat-Phi (author) / Woo, Seung-Wook (author) / Hou, Yao-Long (author) / Park, Sung-Sik (author)
2019-10-11
6 pages
Article/Chapter (Book)
Electronic Resource
English
Failure in anisotropic sensitive clays: finite element study of Perniö failure test
British Library Online Contents | 2017
|Failure in anisotropic sensitive clays: finite element study of Perniö failure test
Online Contents | 2017
|Progressive Failure of Heavily Overconsolidated Clays
British Library Online Contents | 1999
|Numerical modeling of progressive failure and its implications for spreads in sensitive clays
Online Contents | 2013
|Numerical modeling of progressive failure and its implications for spreads in sensitive clays
British Library Online Contents | 2013
|