Plastic pre-strains were applied to the metastable 304L austenitic stainless steel at both room temperature (20 °C) and higher temperatures (i.e., 50, 80 and 100 °C), and then the hydrogen embrittlement (HE) susceptibility of the steel was evaluated by cathodically hydrogen-charging and tensile testing. The 20 °C pre-strain greatly strengthened the steel, but simultaneously significantly increased the HE susceptibility of the steel, since α′ martensite was induced by the pre-strain, causing the pre-existence of α′ martensite, which provided “highways” for hydrogen to transport deep into the steel during the hydrogen-charging. Although the warm pre-strains did not strengthen the steel as significantly as the 20 °C pre-strain, they retained t...
316L stainless steel is a promising material candidate for a hydrogen containment system. However, w...
Internal hydrogen embrittlement of several austenitic stainless steels is known to be accompanied by...
Unstable austenitic stainless steels undergo a strain-induced martensite transformation. The effect ...
Plastic pre-strains were applied to the metastable 304L austenitic stainless steel at both room temp...
In-situ tensile testing of electrochemically hydrogen charged 304L stainless steel at different cros...
Effects of microstructural changes induced by prestraining on hydrogen transport and hydrogen embrit...
Effects of microstructural changes induced by prestraining on hydrogen transport and hydrogen embrit...
The effect of metastable austenite on the hydrogen embrittlement (HE) of cold-rolled (30% reduction ...
The effect of metastable austenite on the hydrogen embrittlement (HE) of cold-rolled (30% reduction ...
Plastic deformation and strain-induced martensite (SIM, α′) transformation in metastable austenitic ...
Plastic deformation and strain-induced martensite (SIM, α′) transformation in metastable austenitic ...
In this work, the effects of electrochemical hydrogen charging of 316H grade austenitic stainless st...
AbstractCompared to the stable austenitic stainless steels (ASSs), the metastable ASSs, e. g. 304L, ...
Physical and mechanical properties of austeno-ferritic stainless steels depend on the microstructure...
The hydrogen embrittlement of an AISI 304 steel containing different amounts of α′ martensite has be...
316L stainless steel is a promising material candidate for a hydrogen containment system. However, w...
Internal hydrogen embrittlement of several austenitic stainless steels is known to be accompanied by...
Unstable austenitic stainless steels undergo a strain-induced martensite transformation. The effect ...
Plastic pre-strains were applied to the metastable 304L austenitic stainless steel at both room temp...
In-situ tensile testing of electrochemically hydrogen charged 304L stainless steel at different cros...
Effects of microstructural changes induced by prestraining on hydrogen transport and hydrogen embrit...
Effects of microstructural changes induced by prestraining on hydrogen transport and hydrogen embrit...
The effect of metastable austenite on the hydrogen embrittlement (HE) of cold-rolled (30% reduction ...
The effect of metastable austenite on the hydrogen embrittlement (HE) of cold-rolled (30% reduction ...
Plastic deformation and strain-induced martensite (SIM, α′) transformation in metastable austenitic ...
Plastic deformation and strain-induced martensite (SIM, α′) transformation in metastable austenitic ...
In this work, the effects of electrochemical hydrogen charging of 316H grade austenitic stainless st...
AbstractCompared to the stable austenitic stainless steels (ASSs), the metastable ASSs, e. g. 304L, ...
Physical and mechanical properties of austeno-ferritic stainless steels depend on the microstructure...
The hydrogen embrittlement of an AISI 304 steel containing different amounts of α′ martensite has be...
316L stainless steel is a promising material candidate for a hydrogen containment system. However, w...
Internal hydrogen embrittlement of several austenitic stainless steels is known to be accompanied by...
Unstable austenitic stainless steels undergo a strain-induced martensite transformation. The effect ...