Use of ferroelectric domain-walls in future electronics requires that they are stable, rewritable conducting channels. Here we demonstrate nonthermally activated metallic-like conduction in nominally uncharged, bent, rewritable ferroelectric-ferroelastic domain-walls of the ubiquitous ferroelectric Pb(Zr,Ti)O<sub>3</sub> using scanning force microscopy down to a temperature of 4 K. New walls created at 4 K by pressure exhibit similar robust and intrinsic conductivity. Atomic resolution electron energy-loss spectroscopy confirms the conductivity confinement at the wall. This work provides a new concept in “domain-wall nanoelectronics”
Ferroic materials play an increasingly important role in novel (nano-)electronic applications. Recen...
Ferroelectric domain walls are interfaces between areas of a material that exhibits different direct...
Most ferroelectrics are also ferroelastics (hysteretic stress-strain relationship and response to me...
Conductive domain walls (DWs) in ferroic oxides as device elements are a highly attractive research ...
Ferroelectric domain walls are of great interest as elementary building blocks for future electronic...
Ferroelectric domain walls have emerged as a new type of interface in which the dynamic characterist...
Control over the localised conductance recently observed at ferroelectric domain walls is key for th...
Atomically sharp domain walls in ferroelectrics are considered as an ideal platform to realize easy-...
Low-temperature electrostatic force microscopy (EFM) is used to probe unconventional domain walls in...
International audienceLow-temperature electrostatic force microscopy (EFM) is used to probe unconven...
Understanding and controlling the motion, stability, and equilibrium configuration of ferroelectric ...
peer reviewedFerroelectric and ferroelastic domain walls are 2D topological defects with thicknesses...
A new paradigm of domain wall nanoelectronics has emerged recently, in which the domain wall in a fe...
Ferroelectric domain walls constitute a completely new class of sheet-like functional material. More...
Domains in ferroelectrics were considered to be well understood by the middle of the last century: T...
Ferroic materials play an increasingly important role in novel (nano-)electronic applications. Recen...
Ferroelectric domain walls are interfaces between areas of a material that exhibits different direct...
Most ferroelectrics are also ferroelastics (hysteretic stress-strain relationship and response to me...
Conductive domain walls (DWs) in ferroic oxides as device elements are a highly attractive research ...
Ferroelectric domain walls are of great interest as elementary building blocks for future electronic...
Ferroelectric domain walls have emerged as a new type of interface in which the dynamic characterist...
Control over the localised conductance recently observed at ferroelectric domain walls is key for th...
Atomically sharp domain walls in ferroelectrics are considered as an ideal platform to realize easy-...
Low-temperature electrostatic force microscopy (EFM) is used to probe unconventional domain walls in...
International audienceLow-temperature electrostatic force microscopy (EFM) is used to probe unconven...
Understanding and controlling the motion, stability, and equilibrium configuration of ferroelectric ...
peer reviewedFerroelectric and ferroelastic domain walls are 2D topological defects with thicknesses...
A new paradigm of domain wall nanoelectronics has emerged recently, in which the domain wall in a fe...
Ferroelectric domain walls constitute a completely new class of sheet-like functional material. More...
Domains in ferroelectrics were considered to be well understood by the middle of the last century: T...
Ferroic materials play an increasingly important role in novel (nano-)electronic applications. Recen...
Ferroelectric domain walls are interfaces between areas of a material that exhibits different direct...
Most ferroelectrics are also ferroelastics (hysteretic stress-strain relationship and response to me...