High‐entropy alloys (HEAs) are expected to function well as electrocatalytic materials, owing
to their widely adjustable composition and unique physical and chemical properties …

Metallurgists have long been accustomed to a trade-off between yield strength and tensile
ductility. Extending previously known strain-hardening mechanisms, the emerging multi …

In this study, we investigated the evolution of a hierarchical multiphase structure in an as-
cast CrMnFeNiCu high-entropy alloy (HEA). Thermodynamic calculations were performed to …

The integration of bio‐adaptable performance, elaborate structure, and biological
functionality for degradable bone implants is crucial in harnessing the body's regenerative …

Multiple principal element or high-entropy materials have recently been studied in the two-
dimensional (2D) materials phase space. These promising classes of materials combine the …

Refractory high‐entropy alloys (RHEAs) inspire the development of novel high‐temperature
structural materials due to their outstanding resistance to softening and phase stability at …

Alloying traditionally enhances material properties by adding small amounts of secondary
elements to a primary base. Over the past decade and a half, a revolutionary strategy has …

Although various absorbers have been developed for electromagnetic-wave absorption
materials (EAMs), the uniform composition and microstructure limit the design freedom of the …

High-entropy alloys (HEAs) have many attractive properties, while the thermodynamic
mechanism and general behavior of the spinodal decomposition in HEAs remain unknown …

Achieving a porous architecture with multiple‐length scales and utilizing the synergetic
effects of multicomponent chemicals bring up new opportunities for further improving the …