A microstructure-based approach to modeling electrostriction that accounts for variability in spatial locations of domains

Keyphrases

• Electrostriction 100%
• Spatial Location 100%
• Microstructure-based 100%
• Crystalline Domains 100%
• Dipole 71%
• Relaxor Ferroelectric Polymers 57%
• Microstructure 42%
• Adjustable Parameters 42%
• Amorphous Domains 42%
• Representative Volume Element 42%
• Network Model 28%
• Probability Density Function 28%
• Semi-crystalline 28%
• Material Microstructure 28%
• Semi-crystalline Networks 28%
• Amorphous Medium 28%
• Crystalline Phase 14%
• Physical Characteristics 14%
• Electric Field (E-field) 14%
• Electromechanical Coupling 14%
• Mechanical Behavior 14%
• Electrostrictive Behavior 14%
• Direct Measurement 14%
• Dipole Moment 14%
• Relaxor Ferroelectrics 14%
• Crystallites 14%
• Hysteresis Loss 14%
• Low Hysteresis 14%
• Computational Investigation 14%
• Electrostrictive Strain 14%
• Polyvinylidene Fluoride 14%
• Network Morphology 14%
• Constitutive Law 14%
• Hyperelastic 14%
• Crystalline-amorphous 14%
• Scattering Techniques 14%
• Moment Distribution 14%
• Complex Microstructure 14%
• Total Free Energy 14%
• Electromechanical Deformation 14%
• Self-equilibrium Condition 14%
• Eight-chain Model 14%
• Cauchy Stress 14%
• Process-structure-property Relationships 14%

Material Science

• Ferroelectric Material 100%
• Electrostriction 100%
• Polymer 80%
• Density 40%
• Crystalline Phase 40%
• Electromechanical Coupling 20%
• Energy Density 20%
• Mechanical Property 20%
• Crystallite 20%