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PFEM modeling of CPTu tests in saturated structured soils
Kateryna Oliynyk
,
Matteo O. Ciantia
, Claudio Tamagnini
Civil Engineering
Research output
:
Chapter in Book/Report/Conference proceeding
›
Conference contribution
2
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Citations (Scopus)
259
Downloads (Pure)
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Dive into the research topics of 'PFEM modeling of CPTu tests in saturated structured soils'. Together they form a unique fingerprint.
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Keyphrases
Structured Soil
100%
CPTu Test
100%
Geomaterials
60%
Excess Pore Water Pressure
40%
Cone Penetration
20%
Soil Behavior
20%
Numerical Solution
20%
Fine-grained Soils
20%
Structure Effect
20%
Large Deformation
20%
Spatial Distribution
20%
Soil Model
20%
Bond Strength
20%
Plasticity Model
20%
Constitutive Model
20%
Large Displacement
20%
Consolidation Theory
20%
Flow Process
20%
Hardening Plasticity
20%
Strain Localization
20%
Total Stress
20%
Finite Deformation
20%
Correlation-based
20%
Non-associative
20%
Particle Finite Element Method
20%
Geomechanics
20%
Terzaghi
20%
Deformation Process
20%
Mesh Dependence
20%
Cumulative Plastic Strain
20%
Isotropic Hardening
20%
Hardening Law
20%
Macroscopic Description
20%
Localization Regime
20%
Coupled Flow
20%
Coupled Deformation
20%
Natural Clay
20%
Semi-empirical Correlation
20%
FE Solution
20%
Conventional Interpretation
20%
3D Consolidation
20%
Stress Approach
20%
Pseudo-3D
20%
Governing Equations
20%
Engineering
Excess Pore Water Pressure
100%
Internal Variable
100%
Predicted Result
50%
Grained Soil
50%
Numerical Solution
50%
Bond Strength
50%
Constitutive Model
50%
Plasticity Model
50%
Consolidation Theory
50%
Strain Localization
50%
Finite Deformation
50%
Induced Deformation
50%
Particle Finite Element Method
50%
Deformation Process
50%
Isotropic Hardening
50%
Hardening Law
50%
Accumulated Plastic Strain
50%
Spatial Distribution
50%
Earth and Planetary Sciences
Natural Material
100%
Water Pressure
66%
Porewater
66%
Spatial Distribution
33%
Material Science
Natural Material
100%
Particle Finite Element Method
33%