Materials capable of sustaining high radiation doses at a high temperature are required for
next-generation fission and future fusion energy. To date, however, even the most promising …

High-entropy alloys are a novel class of complex materials discovered near the center of
phase diagram, and show exceptional performances over the traditional alloys. The ability of …

Concentrated single phase solid solutions, including medium-and high-entropy alloys,
represent a new class of materials that have recently attracted significant interest due to …

Since their discovery in 2004, high-entropy alloys (HEAs) have generated significant interest
from the scientific community. Based on a multi-principal element design approach, HEAs …

Low dose neutron irradiation has been conducted on a NiFeMnCr (Co-free) high entropy
alloy (HEA) near room temperature. Post-irradiation examination (PIE) at room temperature …

Recently-developed high-entropy alloys (HEAs) containing multiple principal metallic
elements have extended the compositional space of solid solutions and the range of their …

Conventional alloy design based on a single primary element has reached its limits in terms
of performance optimization. An alloy design strategy with multi-principal elements has …

Disorder enhances desired properties, as well as creating new avenues for synthesizing
materials. For instance, hardness and yield stress are improved by solid-solution …

By mixing elements with favourable nuclear activation properties to create high-entropy
alloys, it may be possible to create a material that can withstand a nuclear fusion …

The intricate balance between reactor economics and safety necessitates the emergence of
new and advanced nuclear systems and, very importantly, advanced materials, which can …