Canadian Geotechnical Journal · 2008 · 59 citations · 25 references
EngineeringCivil EngineeringEarth SciencesGeotechnical EngineeringSoil MechanicsSoil PhysicsShear Strength Of SoilsSoil CompressibilitySoil DynamicsSoil PorositySoil TextureStress Distribution In SoilsConstitutive Modeling Of Soil CompressibilityCritical State Soil MechanicsSoil Volume ChangeTriaxial DeformationVoid RatioVolume ChangeVolume Change BehaviorVolume Change Mechanisms
A simple volume–stress model for granular soils under isotropic and critical stress states is presented. The model is formulated in the double logarithmic space of void ratio versus mean stress. It has the same number of parameters as used in the Cam Clay models to describe isotropic compression, with one additional parameter to define the critical state curve. The model can qualitatively describe a number of unique features of sand behaviour. Comparison with experimental data indicates that the model is able to predict well the volume change of a range of different sands subjected to isotropic and triaxial compression.
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K. Been, M. G. Jefferies · Géotechnique · 1985 · 1.9K citations
Engineering, Civil Engineering, Geotechnical Engineering +11
Breakage mechanics—Part I: Theory
Itai Einav · Journal of the Mechanics and Physics of Solids · 2007 · 923 citations
The Steady State of Sandy Soils
Ramón Morillo‐Verdugo, Kenji Ishihara · SOILS AND FOUNDATIONS · 1996 · 857 citations