Ab initio effective Hamiltonian simulations reveal a strain-induced control of domain morphology in epitaxial PbTiO3 ultrathin films being under open-circuit electrical boundary conditions. More precisely, rather different out-of-plane domain structures are found to be the ground state, depending on the value of the misfit strain. Examples include domain walls lying in different crystallographic planes or even being wandering. Analysis of the computations allows us to reveal the precise interactions responsible for such strain-driven domain reorganization
The status of strain relaxation related with the formation of crystallographic twin domains in epita...
Epitaxial (100)/(001)-oriented PbTiO3 films with thickness of 2.8 μm were grown on Nb-doped (100) Sr...
A relation is established between the domain fraction, the domain inclination and the substrate-indu...
Exotic domain morphologies in ferroic materials are an exciting avenue for the development of novel ...
Ferroelectric domain structures and their evolution in the epitaxial PbTiO3 thin films are greatly a...
Lateral size effects of ferroelastic domain structures in epitaxial PbTiO3 thin films were investiga...
Phase and domain structures in ferroelectric materials play a vital role in determining their dielec...
Phase and domain structures in ferroelectric materials play a vital role in determining their dielec...
We study the interplay between epitaxial strain, film thickness, and electric field in the creation,...
We report first-principle atomistic simulations of the effect of local strain gradients on the nanos...
We study the complex ferroelastic/ferroelectric domain structure in the prototypical ferroelectric P...
We investigate the atomistic structure of ferroelastic-ferroelectric 90 degrees domain walls in PbTi...
We investigate the atomistic structure of ferroelastic-ferroelectric 90∘ domain walls in PbTiO3 with...
Leveraging competition between energetically degenerate states to achieve large field-driven respons...
Epitaxial strain is a powerful tool to manipulate the properties of ferroelectric materials. But des...
The status of strain relaxation related with the formation of crystallographic twin domains in epita...
Epitaxial (100)/(001)-oriented PbTiO3 films with thickness of 2.8 μm were grown on Nb-doped (100) Sr...
A relation is established between the domain fraction, the domain inclination and the substrate-indu...
Exotic domain morphologies in ferroic materials are an exciting avenue for the development of novel ...
Ferroelectric domain structures and their evolution in the epitaxial PbTiO3 thin films are greatly a...
Lateral size effects of ferroelastic domain structures in epitaxial PbTiO3 thin films were investiga...
Phase and domain structures in ferroelectric materials play a vital role in determining their dielec...
Phase and domain structures in ferroelectric materials play a vital role in determining their dielec...
We study the interplay between epitaxial strain, film thickness, and electric field in the creation,...
We report first-principle atomistic simulations of the effect of local strain gradients on the nanos...
We study the complex ferroelastic/ferroelectric domain structure in the prototypical ferroelectric P...
We investigate the atomistic structure of ferroelastic-ferroelectric 90 degrees domain walls in PbTi...
We investigate the atomistic structure of ferroelastic-ferroelectric 90∘ domain walls in PbTiO3 with...
Leveraging competition between energetically degenerate states to achieve large field-driven respons...
Epitaxial strain is a powerful tool to manipulate the properties of ferroelectric materials. But des...
The status of strain relaxation related with the formation of crystallographic twin domains in epita...
Epitaxial (100)/(001)-oriented PbTiO3 films with thickness of 2.8 μm were grown on Nb-doped (100) Sr...
A relation is established between the domain fraction, the domain inclination and the substrate-indu...