Effect of Loading Method and Mean Stress on Fatigue Strength of Super Duplex Stainless Steel

High-temperature bending fatigue properties of oxide dispersion-strengthened platinum–rhodium alloy under high axial stress

“…By contrast, at σa = 36.9 MPa, a high tensile stress greater than the axial stress remained near the center of the direction of thickness even at the time of the return to a straight position. This result was obtained because a compressive stress was generated in the vicinity of the upper surface during the return due to the yield of the upper area during bending, and a tensile stress greater than the axial stress was generated as a reaction force around the center of the direction of thickness, which acted as a residual stress [32,33]. When the stress amplitude increased further, at σa = 82.9 MPa, the upper half area of the test specimen and the area near the lower surface yielded greatly to the tensile and compression sides, respectively, during bending.…”

Effect of Post-weld Heat Treatment on Fatigue Reliability of Super-duplex-stainless-steel Weldments

“…17) As an extension to a more practical aspect, the properties of welded joints of the SDSS have been studied in the present work. We report the effects of the PWHT and cooling rate on the microstructure and fatigue strength.…”