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

Understanding alloying effects on the irradiation response of structural materials is pivotal in
nuclear engineering. To systematically explore the effects of Fe concentration on the …

Single-phase multicomponent alloys of equal atomic concentrations (“equiatomic”) have
proven to exhibit promising mechanical and corrosion resistance properties, that are sought …

As a great potential structural-material candidate for nuclear power applications, single-
phase concentrated solid-solution alloys containing different elements have outstanding …

Radiation-induced heterogeneous damage is the single largest source of failures seen in
structural components in nuclear power reactors. Single crystal materials without grain …

Recently a new class of metal alloys, of single-phase multicomponent composition at
roughly equal atomic concentrations (“equiatomic”), have been shown to exhibit promising …

Understanding the effects of chemical complexity from the number, type and concentration of
alloying elements in single-phase concentred solid-solution alloys (SP-CSAs) on defect …

Energetic ions have been widely used to evaluate the irradiation tolerance of structural
materials for nuclear power applications and to modify material properties. It is important to …

Temperature significantly affects defect migration and evolution in irradiated materials.
However, the effects of temperature on defect evolution in concentrated solid-solution alloys …

A grand challenge in material science is to understand the correlation between intrinsic
properties and defect dynamics. Radiation tolerant materials are in great demand for safe …