Engineering
Thermomechanical Coupling
100%
Subsurface
100%
Porous Sandstone
100%
Microscale
100%
Good Agreement
50%
Tensiles
50%
Two Dimensional
50%
Force Displacement
50%
Accurate Prediction
50%
Peak Strength
50%
Fracture Plane
50%
Contact Force
50%
Discrete Element
50%
Contact Model
50%
Crack Closure
50%
Contact Point
50%
Particle Separation
50%
Particle Contact
50%
Rock Formation
50%
Global Response
50%
Element Method
50%
Stress-Strain Curve
50%
External Stress
50%
Energy Application
50%
Mechanical Stress
50%
Numerical Model
50%
Cyclic Loading
50%
Rotation Angle
50%
Displacement Relationship
50%
Porosity
50%
Renewable Energy
50%
Shear Strength
50%
Microstructural Evolution
50%
Grain Size Effect
50%
INIS
particles
100%
failures
100%
porous materials
100%
sandstones
100%
coupling
100%
precursor
100%
rocks
75%
microstructure
50%
damage
50%
cracks
37%
distribution
25%
rotation
25%
simulation
25%
cements
25%
fluctuations
25%
minerals
25%
grain boundaries
25%
strains
12%
data
12%
applications
12%
randomness
12%
motion
12%
laboratories
12%
concentration
12%
prediction
12%
peaks
12%
nonlinear problems
12%
curves
12%
storage
12%
shape
12%
shear strength
12%
loading
12%
operation
12%
injection
12%
geometry
12%
heating
12%
fractures
12%
porosity
12%
deformation
12%
energy
12%
compression
12%
tensile strength
12%
orientation
12%
mimic
12%
extraction
12%
crack propagation
12%
resist
12%
lithology
12%
grain size
12%
point contacts
12%
Earth and Planetary Sciences
Microbalance
100%
Porosity
100%
Sandstone
100%
Renewable Energy
50%
Grain Size
50%
Numerical Model
50%
Cyclic Loading
50%
Size Effect
50%
Tensile Strength
50%
Particle Motion
50%
Crack Closure
50%
Discrete Element Method
50%
Spatial Analysis
50%
Shear Strength
50%