Fundamentally, lithium niobate is a good electrical insulator. However, this can change
dramatically when 180° domain walls are present, as they are often found to be strongly …

The electronic conductivities of ferroelectric domain walls have been extensively explored
over the past decade for potential nanoelectronic applications. However, the realization of …

Ferroelectric domain wall conductance is a rapidly growing field. Thin-film lithium niobate, as
in lithium niobate on insulators (LNOI), appears to be an ideal template, which is tuned by …

Ferroelectric domain walls are atomically sharp topological defects that separate regions of
uniform polarization. The discovery of electrical conductivity in specific types of walls gave …

Ferroelectric domain walls naturally form at nanoscale interfaces of polar order leading to
electronic properties distinct from the bulk that can also be electrically programmed. These …

Ferroelectric domain walls (DWs) are promising structures for assembling future nano-
electronic circuit elements on a larger scale since reporting domain wall currents of up to 1 …

We have used high-voltage Kelvin probe force microscopy to map the spatial distribution of
electrical potential, dropped along curved current-carrying conducting domain walls, in x-cut …

Abstract Commercial nonvolatile Ferroelectric Random Access Memory employs a
destructive readout scheme based on charge sensing, which limits its cell scalability in sizes …

A new paradigm of domain wall nanoelectronics has emerged recently, in which the domain
wall in a ferroic is itself an active device element. The ability to spatially modulate the ferroic …

Recently, there has been an explosion of interest in domain walls as independent functional
entities, with properties distinct from the domains that they delineate.[1–16] Enhanced …