Continuous and interrupted LCF tests were conducted to reveal the effects of temperature,
strain rate and strain amplitude on the LCF behavior of a nitrogen-alloyed 316LN stainless …

Strain-controlled low cycle fatigue (LCF) tests were conducted in the temperature range of
RT–600° C and air atmosphere to investigate the nitrogen effect on LCF behavior of type …

In this study, the influence of cyclic strain amplitude on the evolution of cyclic stress–strain
response and the associated cyclic deformation mechanisms in 316LN stainless steel with …

Cumulative fatigue damage under sequential low cycle fatigue (LCF) and high cycle fatigue
(HCF) loading was investigated at 923 K by conducting HCF tests on specimens subjected …

In this article, the occurrence of secondary cyclic hardening (SCH) and its effect on high-
temperature cyclic deformation and fatigue life of 316LN Stainless steel are presented. SCH …

Strain-controlled low cycle fatigue tests have been conducted in air between 298–873 K to
ascertain the influence of temperature on LCF behaviour of nitrogen-alloyed type 316L …

The low-cycle fatigue (LCF) behaviors of the AL6XN austenitic stainless steel were
investigated at strain rates of 3.3× 10− 5 to 3.3× 10− 3s− 1 and at different temperatures …

Isothermal fatigue (IF) tests at 250° C, 350° C and 450° C, and thermomechanical fatigue
(TMF) tests of 316LN stainless steel within the temperature range of 250–450° C under in …

Total strain controlled low cycle fatigue tests on 316L (N) stainless steel have been
conducted in air at various strain rates in the temperature range of 773–873K to identify the …

The effect of strain rate and nitrogen content on cyclic deformation and substructural
changes in 316LN stainless steel is investigated at temperatures 773, 823 and 873 K …