Room temperature tensile tests have been conducted at different strain rates ranging from
2× 10− 6 to 1× 10− 2/s on hydrogen-free and hydrogen-charged 304 stainless steel (SS) …

Hydrogen embrittlement behavior with respect to strain-induced martensite (SIM, α′) and
the dislocation structure in 316L stainless steel were investigated using tensile testing at …

The hydrogen-caused change in the electron structure of the α-iron has been studied using
the first-principles atomic calculations. It is shown that hydrogen entry into the α-iron crystal …

A potential reader of this book is certainly aware that, be the most widespread chemical
element in the solar system and generally in the universe, hydrogen represents itself as the …

This book analyzes the effect of hydrogen on the atomic-level interactions in metals,
detailing the corresponding changes in the physical properties of crystal lattice defects …

The effect of electrochemical hydrogen-charging on tensile properties, mechanisms of
plastic deformation and fracture micromechanisms was studied using two ultrafine-grained …

Using molecular dynamics, it is shown that, be located in the vicinity of grain boundaries,
hydrogen in the α-iron increases their mobility. This effect is attributed to the hydrogen …

Cryogenic X-ray diffraction measurements demonstrated a split of the ε-martensite peak at
193 K in a hydrogen-charged austenitic steel. Only the higher angle peak remained after …

Understanding of hydrogen effect on local mechanical properties of metals is important for
understanding hydrogen embrittlement mechanisms. The effect of thermal gaseous …

Abstract As mentioned in Sect. 1.5, Chap. 1, hydrogen in iron, nickel, titanium increases the
density of electron states at the Fermi level and, consequently, the concentration of free …