The introduction of dislocations is a recently proposed strategy to tailor the functional and
especially the electrical properties of ceramics. While several works confirm a clear impact of …

Dislocations have been recently introduced as a novel tool to tailor the conductivity of
functional ceramics. However, tuning strategies suffer from poor insight into the structural …

Dislocations have been identified to modify both the functional and mechanical properties of
some ceramic materials. Succinct control of dislocation‐based plasticity in ceramics will also …

Atomic-scale defects strongly influence the electrical and optical properties of materials, and
their impact can be more pronounced in localized dimensions. Here, we directly …

An in-depth understanding of the dislocations motion process in non-metallic materials
becomes increasingly important, stimulated by the recent emergence of ceramics and …

Dislocation‐tuned functionality in ceramic oxides for potential versatile applications gains
increasing attention. As the widespread chemical doping suffers from poor temperature …

By using the state-of-the-art microscopy and spectroscopy in aberration-corrected scanning
transmission electron microscopes, we determine the atomic arrangements, occupancy …

Dislocation‐tuned functional properties such as electrical conductivity, thermal conductivity,
and ferroelectric properties in oxides are attracting increasing research interest. A …

Dislocation-enhanced electrical conductivity is an emerging topic for ceramic oxides. In
contrast to the majority of present studies which focus on large-scale crystal deformation or …

Plastic strain engineering was applied to induce controllable changes in electronic and
oxygen ion conductivity in oxides by orders of magnitude, without changing their nominal …