Elastic strain engineering offers a new route to enable high-performance catalysts,
electrochemical energy conversion devices, separation membranes and memristors. By …

Complex transition metal oxides have played a central role in the study of magnetic
materials, serving as model systems for explorations of fundamental exchange interactions …

Abstract The dominant Haber–Bosch process to produce ammonia, arguably the most
important chemical in support of global food supply, is both energy and carbon intensive …

Perovskite electrocatalysts strongly rely on electronic structure regulation, especially for
electron configuration (eg) and conductivity. However, current regulation strategies …

Using epitaxy and the misfit strain imposed by an underlying substrate, it is possible to
elastically strain oxide thin films to percent levels—far beyond where they would crack in …

Ferroelectric ferromagnets are exceedingly rare, fundamentally interesting multiferroic
materials that could give rise to new technologies in which the low power and high speed of …

Promoting the initially deficient but economical catalysts to high‐performing competitors is
important for developing superior catalysts. Unlike traditional nano‐morphology construction …

The 5d iridium‐based transition metal oxides have gained broad interest because of their
strong spin–orbit coupling, which favors new or exotic quantum electronic states. On the …

The slow kinetics of the oxygen reduction and evolution reactions (ORR, OER) hinder
energy conversion and storage in alkaline fuel cells and electrolyzers employing abundant …

The origin of ferromagnetism in strained epitaxial LaCoO 3 films has been a long-standing
mystery. Here, we combine atomically resolved Z-contrast imaging, electron-energy-loss …