Atomistic simulations are a powerful complement to experimental probes for understanding
the nanoscale processes associated with the effects of hydrogen (H) on plasticity and …

Atomistic simulations of the effects of H on edge dislocation mobility and pile-ups are
performed to investigate possible nanoscale mechanisms for hydrogen-enhanced localized …

The recently emerged multicomponent (or medium/high entropy) alloys have generated
considerable excitement globally in the last 10 years because of their excellent mechanical …

We conduct in situ tensile straining experiments to investigate the role of hydrogen and slip
in crack initiation in nickel-based alloy 725. Our experiments reveal no tendency for …

Hydrogen (H) is considered as the key element in aiding the initiated green energy
transition. To facilitate this, efficient and durable technologies need to be developed for the …

The effect of hydrogen on mechanical properties and failure mechanism of a CoCrFeMnNi
high-entropy alloy was evaluated by in/ex-situ tensile tests and electron backscatter …

This study investigates the ductility loss of a hydrogen-charged 2205 duplex stainless steel
at various test temperatures. The initiation and propagation of hydrogen-induced …

Hydrogen is known to embrittle austenitic stainless steels, which are widely used in high-
pressure hydrogen storage and delivery systems, but the mechanisms that lead to such …

The crack propagation mechanism of 316L austenitic stainless steel in the H 2 S
environment is revealed by dislocation configurations. Slow strain rate tensile test results …

The effect of internal hydrogen on the mechanical properties and deformation behavior of
316 L austenitic stainless steel at temperatures ranging from 123 to 298 K was investigated …