We present a phase-field model of fracture in ferroelectric single crystals for the simulation of conducting crack propagation under purely electrical loading. This is done by introducing the electrical enthalpy of a diffuse conducting layer into the phase-field formulation. Simulation results show an oblique crack propagation and crack branching from a conducting notch in a ferroelectric sample under applied electric fields. Microstructure evolution indicates the formation of 90o domains which results in a charge accumulation around the crack. The charge accumulation, in turn, induces a high electric field and hence a high electrostatic energy for driving the conducting crack
We propose a phase-field model for the coupled simulation of microstructure formation and evolution,...
We propose a phase-field model for the coupled simulation of microstructure formation and evolution,...
The unique electro-mechanical coupling properties of ferroelectrics make them ideal materials for us...
We present a phase-field model of fracture in ferroelectric single crystals for the simulation of co...
Abstract. We present a phase-field model of fracture in ferroelectric single crystals for the simula...
Ferroelectric ceramics are susceptible to fracture under high electric fields, which are commonly ge...
We present a phase-field model of fracture in ferroelectric single crystals for the simulation of co...
Ferroelectric ceramics are susceptible to fracture under high electric fields, which are commonly ge...
Ferroelectric ceramics are susceptible to fracture under high electric fields, which are commonly ge...
We present a phase-field model of fracture in ferroelectric single crystals for the simulation of con...
This paper presents a family of phase-field models for the coupled simulation of the microstructure ...
This paper presents a family of phase-field models for the coupled simulation of the microstructure...
A phase-field model is proposed for the coupled simulation of microstructure and fracture evolution ...
A phase-field model is proposed for the coupled simulation of microstructure and fracture evolution ...
Ferroelectric materials exhibit strong electro-mechanical coupling which make them ideal materials f...
We propose a phase-field model for the coupled simulation of microstructure formation and evolution,...
We propose a phase-field model for the coupled simulation of microstructure formation and evolution,...
The unique electro-mechanical coupling properties of ferroelectrics make them ideal materials for us...
We present a phase-field model of fracture in ferroelectric single crystals for the simulation of co...
Abstract. We present a phase-field model of fracture in ferroelectric single crystals for the simula...
Ferroelectric ceramics are susceptible to fracture under high electric fields, which are commonly ge...
We present a phase-field model of fracture in ferroelectric single crystals for the simulation of co...
Ferroelectric ceramics are susceptible to fracture under high electric fields, which are commonly ge...
Ferroelectric ceramics are susceptible to fracture under high electric fields, which are commonly ge...
We present a phase-field model of fracture in ferroelectric single crystals for the simulation of con...
This paper presents a family of phase-field models for the coupled simulation of the microstructure ...
This paper presents a family of phase-field models for the coupled simulation of the microstructure...
A phase-field model is proposed for the coupled simulation of microstructure and fracture evolution ...
A phase-field model is proposed for the coupled simulation of microstructure and fracture evolution ...
Ferroelectric materials exhibit strong electro-mechanical coupling which make them ideal materials f...
We propose a phase-field model for the coupled simulation of microstructure formation and evolution,...
We propose a phase-field model for the coupled simulation of microstructure formation and evolution,...
The unique electro-mechanical coupling properties of ferroelectrics make them ideal materials for us...