Single-phase concentrated solid solution alloys, including high entropy alloys, exhibit
remarkable mechanical properties as well as extraordinary corrosion and radiation …

Large vacancy clusters, such as stacking-fault tetrahedra, are detrimental vacancy-type
defects in ion-irradiated structural alloys. Suppression of vacancy cluster formation and …

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 …

Chemical short-range order (CSRO), as a nanoscale atomic feature, has been found to
significantly alter material properties in various alloys. Here, we use Fe-Ni-Cr alloys to …

ABSTRACT A combined experimental and computational evaluation of damage
accumulation in ion-irradiated Ni, NiFe, and NiFeCoCr is presented. A suppressed damage …

The effect of high-energy particle irradiation on materials is often detrimental, yet it can be
beneficial as in orienting high-density magnetic alloys by promoting chemical order. 1 …

Understanding and predicting radiation damage is of central importance to develop
radiation-tolerant structural materials for current and next-generation nuclear systems …

Complex concentrated alloys (CCAs) are of growing interest due to their outstanding
mechanical properties that exceed the property limits of conventional alloys. Whereas the …

The unusual mechanical and radiation properties found in concentrated solid–solution
alloys (CSAs) make them promising candidate materials in nuclear applications. In this work …

Multi-principal element alloys (MPEAs) have attracted much attention as future nuclear
materials due to their extraordinary radiation resistances. In this work, we have elucidated …