Dynamic response and roughening of ferroelectric domain walls driven at planar electrode edges

Understanding and controlling the motion, stability, and equilibrium configuration of ferroelectric domain walls is key for their integration into potential nanoelectronics applications, such as ferroelectric racetrack memories. Using piezoresponse force microscopy we analyse the growth and roughness of ferroelectric domains in epitaxial thin film Pb(Zr0.2Ti0.8)O3, driven by the electric fields at straight edges of planar electrodes at two different temperatures. This device relevant geometry allows us to confirm that the domain walls are well described as 1-dimensional monoaffine elastic interfaces driven in random-bond disorder. However, we observe a progressive increase of roughness as initially flat domain walls move through the disorder landscape, which could prove a significant limiting factor for racetrack-type memories using ferroelectrics.

    Organizational unit
    Paruch Group
    Type
    Dataset
    DOI
    10.26037/yareta:pmummlrfbneihiwchlsejykinu
    Type
    general.label.dataset
    License
    Creative Commons Attribution 4.0 International
Publication date24/08/2021
Retention date10/12/2031
accessLevelPublicAccess levelPublic
SensitivityUndefined
duaNoneContract on the use of data
Contributors
  • Rapin, Guillaume
  • Ehrensperger, Sophia
  • Blaser, Cédric
  • Caballero, Nirvana Belen orcid
  • Paruch, Patrycja
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