The austenite-ferrite transformation is the key metallurgical tool to tailor properties of low
alloyed steels and remains an active area of research. Models have yet to be developed …

Understanding the microstructure evolution mechanism of certain alloys during the laser
based directed energy deposition (L-DED) process is key to reaching the goal of adjusting …

Strain-induced martensitic transformations can improve the strength and ductility of some
face centered cubic (FCC) metals and alloys. Irradiation-induced defects such as vacancies …

Numerous molecular dynamics (MD) simulations have been performed to investigate the
effect of the nanopores on the martensitic transformation (MT) of pure iron (Fe) during the …

The tensile and compressive behaviors of 316L stainless steel at room temperature were
compared. The differences between the stress–strain responses during tension and …

The martensitic transformation in pure Fe and its alloys has been studied over many
decades. Several theoretical models have been proposed to describe the atomic motion that …

The deformation mechanisms of neutron-irradiated 304 L stainless steel have been
investigated using the in-situ electron backscattered diffraction (EBSD) technique. To …

Using classical molecular dynamics simulations, we study austenite to ferrite phase
transformation in iron, focusing on the role of interface morphology. We compare two …

The effect of temperature (350° C¡ MS¡ 450° C) on the partitioning mechanisms and the final
microstructure evolution in a CMnSiAl quenching and partitioning (Q&P) steel was …

Only few available interatomic interaction potentials implement the α↔ γ phase
transformation in iron by featuring a stable low-temperature bcc and high-temperature fcc …