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Development of fracture in bending experiments
A. Fakhimi
, Q. Lin
, M. Haggerty
,
J. F. Labuz
Civil, Environmental, and Geo- Engineering
Research output
:
Chapter in Book/Report/Conference proceeding
›
Conference contribution
4
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Scopus citations
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Keyphrases
Breakage
100%
Bending Experiment
100%
Numerical Experiments
50%
Numerical Model
50%
Numerical Results
50%
Elastic Properties
50%
Two-particle
50%
Tensile Strength
50%
Microcracks
50%
Process Zone
50%
Circular Particle
50%
Mixed-mode Fracture
50%
Unconfined Compressive Strength
50%
Fracture Path
50%
Particle in Contact
50%
Acoustic Emission
50%
Bending Tensile Strength
50%
Discrete Element Method
50%
Beam Strength
50%
Shear Bond
50%
Shear Spring
50%
Beam Test
50%
Compressive Bending
50%
Acoustic Emission Monitoring
50%
Three-point Bending Test
50%
Peak Stress
50%
Bond Failure
50%
Bond Breakage
50%
Softening Model
50%
Intrinsic Process
50%
Engineering
Ultimate Tensile Strength
100%
Breakage
100%
Acoustic Emission
100%
Numerical Experiment
50%
Test Beam
50%
Beam Strength
50%
Discrete Element
50%
Three-Point Bending Test
50%
Process Zone
50%
Peak Stress
50%
Bond Failure
50%
Intrinsic Property
50%
Bond Breakage
50%
Mixed Mode Fracture
50%
Numerical Model
50%
Softening Model
50%
Compression Strength
50%
Compressive Strength
50%
Material Science
Ultimate Tensile Strength
100%
Acoustic Emission
100%
Compressive Strength
50%
Mixed Mode Fracture
50%
Discrete Element Method
50%
Elastic Property
50%