Add to ORKGIn this thesis it is shown that different substrates and different film thicknesses lead to different strain states in thin films of PbTiO_3, which leads to either different crystal symmetries or different domain configurations. Altogether, this means certain substrate/layer combinations can contribute to the elucidation of the mechanism which leads to the enormous increase in ferroelectric properties of PbTiO_3-based compounds. In ultra-thin films the domains are of nanometer size. In this way, the appropriate choice of substrate and film can lead to perfectly periodic domain structures, with high potential for memory applications.
Understanding and controlling domain formation in nanoscale ferroelectrics is interesting from a fun...
The status of strain relaxation related with the formation of crystallographic twin domains in epita...
Periodic ferroelectric-ferroelastic 90° domain patterns with an unprecedented small domain periodici...
Phase and domain structures in ferroelectric materials play a vital role in determining their dielec...
In epitaxial ferroelectric thin films under tensile strain, a transition from 180° domains to 90° do...
Phase and domain structures in ferroelectric materials play a vital role in determining their dielec...
In epitaxial ferroelectric thin films under tensile strain, a transition from 180 degrees domains to...
In epitaxial ferroelectric thin films under tensile strain, a transition from 180 degrees domains to...
In epitaxial ferroelectric thin films under tensile strain, a transition from 180 degrees domains to...
In epitaxial ferroelectric thin films under tensile strain, a transition from 180 degrees domains to...
X-ray diffraction constitutes a powerful technique with which to characterise ferroelectric domains....
X-ray diffraction constitutes a powerful technique with which to characterise ferroelectric domains....
X-ray diffraction constitutes a powerful technique with which to characterise ferroelectric domains....
In epitaxial ferroelectric thin films under tensile strain, a transition from 180 degrees domains to...
X-ray diffraction constitutes a powerful technique with which to characterise ferroelectric domains....
Understanding and controlling domain formation in nanoscale ferroelectrics is interesting from a fun...
The status of strain relaxation related with the formation of crystallographic twin domains in epita...
Periodic ferroelectric-ferroelastic 90° domain patterns with an unprecedented small domain periodici...
Phase and domain structures in ferroelectric materials play a vital role in determining their dielec...
In epitaxial ferroelectric thin films under tensile strain, a transition from 180° domains to 90° do...
Phase and domain structures in ferroelectric materials play a vital role in determining their dielec...
In epitaxial ferroelectric thin films under tensile strain, a transition from 180 degrees domains to...
In epitaxial ferroelectric thin films under tensile strain, a transition from 180 degrees domains to...
In epitaxial ferroelectric thin films under tensile strain, a transition from 180 degrees domains to...
In epitaxial ferroelectric thin films under tensile strain, a transition from 180 degrees domains to...
X-ray diffraction constitutes a powerful technique with which to characterise ferroelectric domains....
X-ray diffraction constitutes a powerful technique with which to characterise ferroelectric domains....
X-ray diffraction constitutes a powerful technique with which to characterise ferroelectric domains....
In epitaxial ferroelectric thin films under tensile strain, a transition from 180 degrees domains to...
X-ray diffraction constitutes a powerful technique with which to characterise ferroelectric domains....
Understanding and controlling domain formation in nanoscale ferroelectrics is interesting from a fun...
The status of strain relaxation related with the formation of crystallographic twin domains in epita...
Periodic ferroelectric-ferroelastic 90° domain patterns with an unprecedented small domain periodici...