...Hans-Jürgen Christ; Valerij Bauer Austenitic stainless steels are often used for high-temperature applications under conditions where fatigue loading occurs in combination with varying temperatures, superimposed mean stresses or dwell times and environmental effects. In order to characterize...

... of irradiated austenitic stainless steel at 240°C is strong obstacles such as γ precipitate that acts as dislocation pining and dislocation loops such as Frank loops that do not act as obstacles. Journal of ASTM International, Vol. 7, No. 1 Paper ID JAI102358 Available online at www.astm.org K. Kondo,1 Y. Miwa...

... AISI 316L austenitic stainless steel. The carburizing was carried out at 500°C to produce a surface layer with a hardness around 800∼1000 HV, while retaining the excellent corrosion resistance and low magnetic permeability associated with this type of steel. Tests carried out have shown that despite...

... in austenitic stainless steels was adapted to include the effects of defect trapping, which is expected to be caused by oversized solutes, on RIS. The model accounts for the sensitivity of RIS to both dose rate and temperature. Model results show that the primary contribution to the reduction in RIS occurs...

... on tensile properties. However, tensile properties are useful for qualitative predictions of fatigue response. KEYWORDS: radiation exposure, fatigue response, tensile properties, fatigue life prediction, Universal Slopes, austenitic stainless steel, ferritic/martensitic steel Introduction Most reactor...

... the nondiffusion phase transformation is analyzed. The revealed effects are discussed in terms of the internal strength field changes due to thermal and radiation effects. 08 07 2002 11 08 2003 07 04 2004 austenitic stainless steel mechanical properties martensite transformation helium...