Nanostructured materials with amorphous intergranular films (AIFs) have demonstrated
superior strength and ductility. Their radiation tolerance is expected to be high as the large …

Nanocrystalline metals are promising radiation tolerant materials due to their large
interfacial volume fraction, but irradiation-induced grain growth can eventually degrade any …

Atomistic simulations are used to explore the effect of interfacial structure on residual
radiation damage. Specifically, an ordered grain boundary is compared to a disordered …

Nanostructured metals are a promising class of radiation-tolerant materials. A large volume
fraction of grain boundaries (GBs) can provide plenty of sinks for radiation damage, and …

Enhanced irradiation tolerance in crystalline multilayers has received significant attention
lately. However, little is known on the irradiation response of crystal/amorphous nanolayers …

Nanolaminated materials due to the abundant interfaces that are efficient sinks for irradiation
defects have received broad attention. In this work, Ag/Cu-Zr crystalline/amorphous …

Nanocrystalline materials with a high density of grain boundaries have long been reported
to alleviate radiation damage. However, a full mechanistic understanding of defect …

Understanding radiation performance of nanocrystalline Zr-based alloys is essential to
develop internal components and external cladding materials with self-healing capabilities …

An investigation on the microstructural evolution and self-healing mechanisms of ZrCu
nanocrystalline/amorphous laminated alloy (NALA) has been conducted by molecular …

Nanocrystalline and nanolaminated materials show enhanced radiation tolerance compared
with their coarse-grained counterparts, since grain boundaries and layer interfaces act as …