Engineering metallic materials are an essential class of materials for a variety of industrial
applications due to their competitive mechanical properties, especially strength and ductility …

High‐entropy materials (HEMs) have been in the spotlight as emerging catalysts for
electrochemical water splitting. In particular, HEM catalysts feature multi‐element active sites …

Additive manufacturing produces net-shaped components layer by layer for engineering
applications,,,,,–. The additive manufacture of metal alloys by laser powder bed fusion (L …

Metals with nanocrystalline grains have ultrahigh strengths approaching two gigapascals.
However, such extreme grain-boundary strengthening results in the loss of almost all tensile …

Medium‐entropy alloy aerogels (MEAAs) with the advantages of both multimetallic alloys
and aerogels are promising new materials in catalytic applications. However, limited by the …

Suppressing the early strain localization at the nanostructured topmost layer is crucial for
achieving better tensile ductility in the gradient structure. Thus, structures with combined …

The development of high-performance ultraelastic metals with superb strength, a large
elastic strain limit and temperature-insensitive elastic modulus (Elinvar effect) are important …

Aqueous monovalent‐ion batteries have been rapidly developed recently as promising
energy storage devices in large‐scale energy storage systems owing to their fast charging …

Precipitates are known to be effective obstacles for dislocation gliding, which can
substantially increase the strength of metallic materials. In particular, dense nanoscale …

For most metallic materials, surface hardening via modifying the near-surface microstructure
is an effective method for improving mechanical properties. Among these processes, laser …