Abstract The Fe–Cr–Al alloy system has the potential to form an important class of enhanced
accident-tolerant cladding materials in the nuclear power industry owing to the alloy …

FeCrAl alloys are currently under consideration for accident-tolerant fuel cladding
applications in light water reactors owing to their superior high-temperature oxidation and …

Abstract Model FeCrAl alloys with varying compositions (Fe (10–18) Cr (10–6) Al at.%) have
been neutron irradiated at~ 320 to damage levels of~ 7 displacements per atom (dpa) to …

FeCrAl alloy with a low-Cr content (10%) and higher amount of Al (5%) was developed. The
effects of Cr content on the mechanical properties, irradiation tolerance and the steam …

A primary challenge of using FeCrAl in high temperature industrial settings is the formation
of α′-precipitates that causes brittleness in the alloy, resulting in failure through fracture …

Aluminum suppression of the α′ precipitate has been observed in eight model Fe–Cr–Al
alloys with nominal compositions ranging from 11 to 20 wt% Cr and 4.5 to 6 wt% Al during …

Oxidation-resistant iron-chromium-aluminum (FeCrAl) alloys demonstrate better
performance in Loss-of-Coolant Accidents, compared with austenitic-and zirconium-based …

Aluminum addition to ferritic stainless steels was found to effectively suppress the
deleterious 475° C embrittlement resulting from the phase decomposition in concentrated Fe …

A phase-field model for the precipitation of Fe-Cr-Al alloy is established incorporating grain
boundary (GB) effects and irradiation-accelerated diffusion. The radiation source and grain …

FeCrAl thin films are considered optimal candidates for protecting surfaces in harsh
environments, with potential for improvement in their anti-oxidation properties by …